Von Hippel-Lindau disease …

Developmental Malformations

Updated 02.03.2023
Released 02.28.1996
Expires For CME 02.03.2026

Von Hippel-Lindau disease

Authors: Yelena Wilson DO, Jennifer Baccon MD PhD MHCM

See Contributor Disclosures

Editor: Harvey B Sarnat MD FRCPC MS

Von Hippel-Lindau disease

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Introduction

Overview

This article reviews the diverse systemic manifestations of von Hippel-Lindau disease and discusses the historical context of the disease as well as current methods employed in the diagnosis and treatment of the disorder. Classic physical and radiographic manifestations are illustrated in a clinical vignette. New recommendations for the management of pancreatic lesions and for pheochromocytoma surveillance are reviewed.

Key points

	• Von Hippel-Lindau disease is an autosomal dominant hereditary multisystem tumor syndrome with marked intra-and interfamilial variability.
	• The tumors are highly vascular and mostly consist of hemangioblastomas of the CNS and retina, renal cell carcinoma, endolymphatic sac tumor of inner ear, and adrenal pheochromocytoma.
	• There is correlation between the type of gene mutation and its phenotypic expression, particularly for pheochromocytoma and renal cell carcinoma.
	• Molecular diagnostic testing for the von Hippel-Lindau gene (VHL gene) is available and can be performed on asymptomatic high-risk individuals and in high-risk pregnancies in the early prenatal period.
	• Management mainly consists of excision of malignant lesions (eg, renal tumors) and surgical removal or ablation of symptomatic benign lesions (eg, hemangioblastomas), which are followed closely for possible recurrence or development of new lesions.

Historical note and terminology

Collins was the first investigator to recognize the inherited nature of what was called “retinal angiomatosis,” which we now call retinal hemangioblastoma (11). Von Hippel was the first to document the progressive nature of the retinal lesions (70).

The history of hemangioblastoma of the cerebellum was initiated by Hughlings Jackson (26). Several authors subsequently noted an association between cerebellar cysts and small cysts of the pancreas and kidneys (58; 71). These associated lesions later became known as the von Hippel-Lindau complex.

Tresling described the first family with an association between retinal and cerebellar tumors (68). Lindau combined, as a single entity, the clinical-pathological hemangioblastic alterations of the retina, cerebellum, spinal cord, and lesions of the pancreas, kidneys, adrenal medulla, liver, and epididymis (37). The term "von Hippel-Lindau disease" was first used in 1936 (15) and has been in common use since the 1970s (41). Melmon and Rosen reviewed the literature on the disease and suggested the clinical diagnostic criteria (46). In 1988, Seizinger and colleagues demonstrated the responsible gene at short arm of chromosome 3 (63). Latif and colleagues showed that the abnormal gene of von Hippel-Lindau disease behaves as a tumor suppressor gene (36). These molecular genetic findings established the definitive criteria for the disease to confirm the diagnostic viability of the clinical criteria (67).

Clinical manifestations

Presentation and course

	• Von Hippel-Lindau disease is an autosomal dominant multisystem tumor syndrome with various benign and malignant neoplasms.
	• The typical ocular lesion is the hemangioblastoma of the retina.

The lesions are diverse and affect various organs, including the eye, central nervous system, kidney, pancreas, inner ear, adrenal gland, liver, and epididymis (male) or broad ligament (female). Given the diversity of the symptomatology corresponding to the involvement of the organs in each patient, the symptoms and clinical signs are individualized.

Melmón and Rosen established diagnostic criteria for von Hippel-Lindau disease (46). A patient must have at least 1 characteristic lesion in the central nervous system, eye, or viscera if there is a family history of an affected first-degree relative, or they must have 2 lesions in the absence of a family history. Since these initial criteria were established, the diagnostic criteria have been expanded to encompass molecular genetic confirmation.

Eye. The typical ocular lesion is the hemangioblastoma of the retina, which was the first recognized pathological manifestation of von Hippel-Lindau disease. The retinal hemangioblastoma has been referred to as an angioma, hemangioma, or retinal angiomatosis and has been reported to occur in approximately 40% to 60% of patients; they are bilateral in 30% to 50% of cases with ocular involvement. Retinal lesions may become manifest at any age, including infancy. The principal symptoms or complications of retinal hemangioblastoma are glaucoma, cataracts, detachment of the retina, and sympathetic ophthalmitis, which results in unilateral or bilateral blindness in half the cases. Some tumors remain stationary and dormant for many years after diagnosis; however, the usual course is one of progressive growth at a moderate or rapid rate. Studies within the past several years indicate that the prevalence and biological progression of retinal hemangioblastoma and also other lesions in von Hippel-Lindau disease are determined in part by the specific germline mutations within the VHL gene. When the optic disc is affected, the lesion can resemble papilledema, papillitis, or glioma of the optic nerve head (24).

Retinal vascular proliferation is a relatively uncommon fibrovascular lesion in patients with von Hippel-Lindau disease, and it is important to distinguish this from retinal hemangioblastoma.

Central nervous system. Hemangioblastomas of CNS are the main component of von Hippel-Lindau disease. They occur in 60% to 80% of cases, are multifocal in 42% of cases, and are the presenting feature in approximately 40% of cases (42; 41; 48). The lesion is mainly located in the cerebellum and spinal cord, less commonly in the brainstem (73), and rarely in the cerebral hemispheres (56), optic nerve (25), pituitary gland (14), pituitary stalk, and third ventricle (39).

The diagnosis is usually made in young adults, 24 to 40 years of age, with a mean age of 32 years; it occasionally has been seen in children less than 10 years of age (23). The most frequent symptoms are generalized headaches due to increased intracranial pressure and headaches localized to the occipital and upper cervical regions; less frequent symptoms include lethargy, anorexia, gait disturbances, dementia, and visual disturbances. The usual signs of hemangioblastoma of the cerebellum are ataxia, papilledema, nystagmus, bilateral convergent strabismus, and facial paralysis; less frequent findings are impaired consciousness, paresis of the lower extremities, diminished in visual acuity, and dysarthria.

Historically, cerebellar hemangioblastomas were the cause of death in most patients with von Hippel-Lindau disease (35; 48; 04), but increased survival has been achieved due to the use of advanced diagnostic and management techniques. Early diagnosis often is possible in preclinical stages because of the study of carriers or possible affected family members by molecular genetic techniques and newer methods of imaging of subjects at risk, thus, disclosing cryptic hemangioblastoma of the CNS (48; 57). The symptoms of posterior fossa involvement with hemangioblastoma appear approximately 15 years earlier in cases of von Hippel-Lindau disease than in sporadic cases of hemangioblastoma (48; 12). The majority (80%) of cerebellar hemangioblastomas are located in the cerebellar hemispheres, 15% in the vermis, and only 5% in the floor of the fourth ventricle. Of these cerebellar tumors, 75% are cystic, usually with mural nodules (35). Approximately 10% are multiple and 10% are recurrent. Cerebellar hemangioblastomas usually produce erythropoietin, which may result in erythrocytosis (polycythemia).

Hemangioblastomas of the brainstem in von Hippel-Lindau disease usually localize to the medulla oblongata.

Spinal cord hemangioblastomas present with a frequency 3 times greater than those of the brainstem (35). Symptoms of spinal cord compression occur early, and pain often precedes the loss of sensation. The tumor can produce signs and symptoms related to lesions of the lateral columns, distal weakness, muscular atrophy, hyperreflexia, and spastic paraplegia. The concomitant cerebellar symptoms in many cases may confuse the diagnosis if it is not taken into account that von Hippel-Lindau disease is a multisystem disorder and may be multicentric in the CNS, requiring an investigation of all possible locations in search of multiple lesions. Advances in techniques of MR, Gd-DPTA-MR, and MR angiography have made possible an early detection of asymptomatic lesions and have reduced the time interval between the appearance of symptoms and the diagnosis. The localization of spinal cord hemangioblastoma is intramedullary in almost two thirds of cases, extramedullary intradural in one fourth, and extradural in the rest. Half the tumors occur in the thoracic region, 40% in the cervical region, and the remainder in the lumbar segments. Rarely is the tumor encountered in the sacral region or the cauda equina. The CSF may be xanthochromic, with elevated protein and occasionally subarachnoid hemorrhage. Erythrocytosis has not been described in spinal hemangioblastoma as it has been with cerebellar lesions.

Systemic lesions. Lesions of the kidneys, pancreas, and epididymis are frequently asymptomatic, and their detection may be incidental. Patients with adrenal tumors (pheochromocytomas) are more often symptomatic.

Kidney. The renal lesions of von Hippel-Lindau may be benign cysts or clear cell carcinomas with a partial or predominant cystic component; both present with a similar incidence. Renal cysts may be solitary or multiple. The risk of developing renal cell carcinoma varies in different clinical forms of von Hippel-Lindau disease (see classification below). In the most common forms (types 1 and 2B) this risk approaches 70% (42; 53); it is the cause of death in 20% to 50% of affected patients (35). Malignant renal cell tumors in von Hippel-Lindau disease are multiple and bilateral in 60%, an important difference from sporadic cases (54). The detection of renal cell carcinoma among multiple cystic lesions can be difficult, though new methods of imaging are making early and correct diagnosis much easier.

Pancreas. Lesions of the pancreas in von Hippel-Lindau disease are usually benign and cystic; more than 40% of patients with von Hippel-Lindau disease will have cystic lesions of the pancreas identified at the time of diagnosis. Pancreatic cystadenoma and familial pancreatic adenocarcinoma are less frequent (49). Pancreatic islet cell tumors (eg, insulin-producing) can occur in von Hippel-Lindau disease (38). Like the renal, CNS, and retinal lesions in von Hippel-Lindau disease, pancreatic islet cell tumors are substantially vascular. Most of these lesions grow slowly and are asymptomatic, although they rarely can be malignant (13). Familial cystic or solid lesions of the pancreas should raise the suspicion of von Hippel-Lindau disease or multiple endocrine neoplasia. Most pancreatic lesions are asymptomatic, but some may obstruct the biliary and pancreatic ducts and result in fibrosis and atrophy of the pancreas. If there is significant loss of the cells populating the islets of Langerhans, diabetes mellitus may result. When symptomatic, patients may present with abdominal pain, mass effect in the abdomen, and endocrine and exocrine insufficiency of the pancreas. In select patients with resultant pancreatitis, pancreatectomy may be performed.

Adrenal gland. Pheochromocytomas are usually unilateral, but bilateral tumors are not uncommon. The risk of developing this tumor varies in different forms of von Hippel-Lindau disease (see classification below). The tumor may result in hypertension, unstable blood pressure, and paroxysmal headaches. High urinary concentrations of catecholamines and metanephrine are suggestive of the diagnosis. The diagnosis can be confirmed by an abnormal pressor response. Radiological study with ultrasonography, MRI, and MRA discloses the tumor.

Epididymis and broad ligament. Epididymal lesions consist of simple cysts or papillary cystadenomas; they are found in 10% to 60% of male patients with von Hippel-Lindau disease and present at an average age of 23 years (35; 08). They may be bilateral and rarely impair fertility. It can be found by routine physical examination but is often an incidental finding at autopsy. These lesions generally are not painful. Although often clinically insignificant, the presence of this tumor in a patient with a close relative with von Hippel-Lindau disease is often instrumental in performing additional studies to establish the diagnosis of that disease. Papillary cystadenoma of the broad ligament is an analogous lesion that may occur in women with von Hippel-Lindau disease. The diagnosis of this lesion can be reliably made by ultrasonography.

Inner ear endolymphatic sac tumor. These are slow-growing, low-grade papillary adenocarcinomas involving the temporal bone. Such lesions occur in an estimated 10% of patients with von Hippel-Lindau disease and are frequently bilateral (40). Symptoms of disequilibrium or aural fullness affecting patients with known von Hippel-Lindau disease may be an early indication of endolymphatic dysfunction. Abrupt hearing loss and tinnitus are other symptoms that may suggest the presence of an endolymphatic sac tumor (07; 33). Such patients should undergo CT or MRI of the internal auditory canal.

Metastasis. Metastatic involvement of the nervous system occurs relatively rarely (49), and the origin of the tumor can be any other organ (most commonly kidney). In many cases, the CNS metastases are revealed only at autopsy.

Classification. Based on the likelihood of developing pheochromocytoma, von Hippel-Lindau disease phenotypes may be divided into type 1, low risk for pheochromocytoma, and type 2, high risk for pheochromocytoma (06). Type 2 accounts for 7% to 20% of von Hippel-Lindau disease cases and is further divided into 3 types: type 2A, low risk for renal cell carcinoma; type 2B, high risk for renal cell carcinoma; and type 2C, pheochromocytoma only, with the last type being the least common form. This classification is helpful in research for correlating the effect of specific mutation with pVHL function and phenotype but is less useful for clinical management due to its intrafamilial variability (41).

Prognosis and complications

Many factors influence the prognosis of von Hippel-Lindau disease. The most important factors include localization, size, number, and biological nature of the tumors. CNS hemangioblastomas are the most frequent cause of death.

Early detection of the disease and the associated lesions and management of the tumors of various organs by physicians with special expertise in these organs have markedly improved the prognosis in patients with von Hippel-Lindau disease.

Clinical vignette

A 25-year-old Caucasian woman first presented for medical care at the age of 18 years following a 2-month history of progressive difficulty with ambulating, handwriting, thinking, and blurring of vision with headache. She acutely experienced severe nausea and headache in the days preceding her admission.

Her neurologic examination was notable at that time for papilledema, right dysmetria, and right Babinski. CT scan revealed a left cerebellar 5 cm x 5 cm enhancing lesion with a cystic component compressing the fourth ventricle with early hydrocephalus.

Cerebellar cystic lesion (MRI)

MRI of head showing a cerebellar cystic lesion with mural nodule (arrow) and hydrocephalus. T1-weighted without (A) and with Gd-DPTA (B). (Contributed by Dr. Javad Towfighi.)

The lesion was surgically excised without complication. The tumor was diagnosed as a cerebellar hemangioblastoma.

Hemangioblastoma of cerebellum (microscopic appearance)

This microscopic appearance of the cerebellar lesion shows abundant blood vessels and stromal cells. Arrow depicts one of the foamy stromal cells. Low (A) and high (B) power microscopic view of hematoxylin and eosin stained sectio...

Given the young age of presentation and a similar tumor previously diagnosed in her mother, she received extensive medical surveillance for systemic manifestations of von Hippel-Lindau disease. MR of C-spine revealed multiple heterogenously enhancing nodular masses throughout the posterior fossa as well as cervical cord consistent with multiple hemangioblastomas.

Cervical spine MRI showing intramedullary cystic lesions with mural nodules

MRI shows 2 intramedullary cystic lesions with mural nodules (long and short arrows). T1-weighted without (A) and with Gd-DPTA (B). (Contributed by Dr. Javad Towfighi.)

Subsequent funduscopic examination revealed multiple bilateral retinal hemangioblastomas.

Retinal hemangioblastomas (funduscopic appearance)

Funduscopic appearance of retinal hemangioblastomas in right eye (long and short arrows) without (A) and with fluorescein injection (B). (Contributed by Dr. Javad Towfighi.)

Additional evaluations in the succeeding months revealed the presence of multiple cystic lesions within the head of the pancreas as well as a solid tumor within the right mid-kidney. The renal lesion was surgically excised and diagnosed as renal cell carcinoma.

Biological basis

Etiology and pathogenesis

Von Hippel-Lindau disease is inherited as an autosomal dominant trait with high penetrance (over 90% by 65 years of age). The associated neoplasms are age-dependent and show allelic-specific expressivity. The disease is caused by germline mutations in the VHL gene (a tumor suppressor gene), and the associated tumors are initiated by biallelic inactivation of this gene (36; 67). Over 500 gene variants have been described to date (62).

VHL gene and pVHL. The gene is located at chromosome 3p25-26 and contains 3 exons and a coding sequence of 639 nucleotides. It is expressed in all tissues and encodes 2 protein products: a full-length form (p30, 213 amino acids) and a shorter form (p19, 160 amino acids). The VHL gene products, particularly the p19 isoforms, have been conserved throughout evolution and can be detected in all multicellular organisms examined to date (Kaelen 2007; 50). Both protein isoforms behave similarly in most functional assays, so they are referred to as pVHL. This protein has been implicated in a variety of cellular functions, including transcriptional and posttranscriptional gene expression, extracellular matrix formation, apoptosis, and ubiquitylation (29; 60; 52).

Gene mutations. Approximately 20% of cases of von Hippel-Lindau disease result from de novo mutation of the VHL gene. Germline mutations of the VHL gene are spread throughout the 3 exons. Missense mutations are the most common, but other forms of mutation and large deletions can also occur. Biallelic inactivation may occur through one of several pathways, including intragenic mutations, mitotic recombination events, and hypermethylation of the promoter region. Alteration of the VHL gene is typically due to insertion, deletions, or missense mutations (36). Mutations of the VHL gene are also common in sporadic hemangioblastomas and renal cell carcinomas.

There is a correlation between certain germline mutations and particular clinical phenotypes (64). In families with von Hippel-Lindau disease type 1 (high risk for hemangioblastoma and renal cell carcinoma but low risk for developing pheochromocytoma), mutations are nonsense or truncating, which markedly disrupt the folding of pVHL (66; 41). Individuals with von Hippel-Lindau disease type 2 have a higher risk of developing pheochromocytoma, and nearly all have a missense germline mutation. This type is further divided into 3 subtypes; 2A (high risk for pheochromocytoma and hemangioblastoma but low risk for renal cell carcinoma); 2B (high risk for pheochromocytoma, hemangioblastoma, and renal cell carcinoma); 2C (pheochromocytoma only). This subtype shows a specific missense germline mutation in the VHL gene (77).

Pathogenesis. The tumors in von Hippel-Lindau disease are initiated by random somatic cell mutations, resulting in bialleic loss of the tumor suppressor VHL gene and its protein product pVHL. Among the various functions of this protein, the pVHL-deficient cells’ inability for ubiquitylation (and subsequent degradation) of hypoxia-inducible factor (HIF-1alpha and HIF-2alpha) has been implicated in the development of highly vascular tumors in von Hippel-Lindau disease (45; 10; 29; 53).

Normal pVHL binds to elongin C, which forms a complex with elongin B, Cul 2, and Rbx1. This complex, due to its ubiquitin ligase activity, interacts with the hydroxylated alpha subunits of HIF and targets them for rapid degradation by proteasomes. Under normoxic conditions and in the presence of functional pVHL, hydroxylated alpha subunits are rapidly degraded. In hypoxia, alpha subunits of HIF cannot be hydroxylated for binding to functional pVHL; this results in transient stabilization of the HIF-alpha, causing their accumulation in the cytoplasm and subsequent translocation to the nucleus, where they result in activation of the transcription factors for a variety of hypoxia-inducible genes such as vascular endothelial growth factor, erythropoietin, and transforming growth factors TGF-alpha and TGF-beta. Likewise, in von Hippel-Lindau disease, where pVHL is abnormal or absent, accumulation of HIF results in abnormal signaling, even in the presence of oxygen (30; 43; 29; 50). These chains of interactions appear to play a key role in the formation of the vascular tumors characteristic of von Hippel-Lindau disease. Studies suggest that targeted inhibition of some of these factors or their receptors may suppress the growth of tumor cells in advanced metastatic renal cell carcinoma and other von Hippel-Lindau disease-associated tumors (09). The broader concept of the role of hypoxia in inflammation and tumor progression in the context of von Hippel-Lindau disease is reviewed by Bader and Hsu (03).

Histopathology. The 2 most common tumors of von Hippel-Lindau disease hemangioblastoma and renal cell carcinoma are discussed here.

Hemangioblastoma is a fine vascular network of endothelial-lined channels or caverns, generally without the presence of neurons or glia. In the cerebellum, it may be cystic and contain xanthochromic fluid. A small, highly vascular nodule is generally found in the wall of the cyst. The nodule is usually in contact with the leptomeninges at the surface of the cerebellum. The "pseudoxanthomatous" stroma consists of polygonal cells with foamy lipid-laden cytoplasm. The histogenesis of the stromal cells is not known. Studies suggest that stromal cells share protein expression and topographic distribution with hemangioblast progenitor cells (19; 55). Extramedullary hematopoiesis may be present within cerebellar hemangioblastoma, and concomitant paraneoplastic erythrocytosis has been reported (79). Hemangioblastomas are well-demarcated and generally are not locally invasive, nor do they tend to metastasize.

Renal lesions may be cystic or solid. The tumors are highly vascular and consist of clear cells. The cysts are small (range from several millimeters to 2 cm in diameter), have a gray appearance, and are filled with clear liquid. They are lined by a layer of atypical cuboidal cells that are similar to those covering solid and cystic renal cell carcinomas. Renal tumors may invade neighboring zones and metastasize through venous channels to the adrenal glands, spinal cord, and other sites of the CNS.

Diagnostic workup

Minimal diagnostic criteria for patients with a known family history of von Hippel-Lindau disease include the presence of a single retinal hemangioblastoma or cerebellar hemangioblastoma, renal cell carcinoma, or pheochromocytoma (13). Multiple pancreatic cysts are sufficiently rare within the general population such that their presence in an at-risk patient is a strong indication that they have inherited the mutation. In contrast, renal and epididymal cysts are generally not reliable indicators that an at-risk person carries a von Hippel-Lindau disease mutation due to the fact that they occur with a fairly high frequency within the population. However, the presence of multiple renal cysts at an early age is strongly suspicious for a diagnosis of von Hippel-Lindau disease as such a presentation is rare within the general population (13).

In the absence of a positive family history, the clinical diagnosis of von Hippel-Lindau disease can be made in a person who has at least 2 hemangioblastomas in retina, 2 in CNS, 1 in CNS, and 1 in retina, or 1 of these lesions and a characteristic visceral tumor (38). De novo mutations tend to be underrecognized compared with mutations in a familial setting. Molecular sequencing is used to confirm the diagnosis.

Indirect ophthalmoscopy is the test of choice for screening for ocular hemangioblastoma (61). Fluorescein angiography can detect lesions before they are evident by unenhanced funduscopic examination and is the test of choice in questionable lesions (28).

The diagnosis of cerebellar hemangioblastoma is easily established following MRI or MRA, which provide precise identification of the size, solid or cystic structure, site of the nodule, feeding vessels and draining veins, and relations with surrounding structures. All of these studies can be performed without surgical exploration of the posterior fossa and without the need of anesthesia or even contrast enhancement. Although CT and MRI without contrast can be used for screening, Gd-DPTA to further enhance MR studies has been shown to be the most sensitive method to detect intracranial and intraspinal hemangioblastomas (17). Gd-DTPA-enhanced MR is capable of demonstrating a larger number of lesions, can separate the tumor from the surrounding zone of edema, and can determine whether the lesion is cystic or solid. In addition, MR angiography is capable of evaluating vascular lesions anywhere in the body including the retina. However, a detailed examination of the ocular fundus is still essential to detect retinal hemangioblastomas.

Given the limitations of CT in studying the posterior fossa and spinal cord, this technique is not a reasonable alternative to MRI. It may, however, complement the MRI for the study of lesions in the abdominal organs, especially if enhanced by contrast.

Ultrasonography remains a recommended test for the study of lesions in the epididymis and may play a role in the evaluation of intra-abdominal lesions.

Ultrasound offers the advantage of real-time visualization and facilitates sampling of the tumor by fine needle aspiration or core biopsy. The diagnosis of pheochromocytoma is suggested by specific tests for this tumor, specifically the urinary elevation of catecholamines and metanephrine; biopsy or fine needle aspiration then confirms the diagnosis.

Management

The following are considered essential steps in the management of patients with von Hippel-Lindau disease, even in asymptomatic patients with genetically confirmed disease (35; 57): (1) information and advice about von Hippel-Lindau disease and its complications; (2) annual medical history and physical examination; (3) careful evaluation of any symptom attributable to this disease; (4) ophthalmological examination every 6 to 12 months beginning at the age of 6 years; (5) urine test for pheochromocytoma at least once and repeated in the event of elevation of catecholamines and metanephrine or instability of blood pressure; (6) bilateral selective renal angiography or MRA after the age of 15 to 20 years and repeated every 1 to 5 years; and (7) imaging studies by MRI and MRA of the posterior fossa and spinal cord, pancreas, and kidneys after the age of 15 to 20 years, repeated every 1 to 5 years and whenever symptoms appear that indicate evaluation sooner. Retinal hemangioblastoma may be diagnosed by careful examination of the ocular fundi. Indirect ophthalmoscopy is the screening test of choice to detect this lesion. Also, other intracranial, spinal, pancreatic, renal, adrenal, and epididymal tumors can now be detected early and diagnosed with precision using improved methods of MRI and MRA. Depending on the size, location, and nature of the tumor and the presence or absence of clinical symptomatology, the indications for surgical or other types of treatment may be established. Mathematical models to determine the optimal age for initial screening and frequency of screening for various Von Hippel-Lindau disease-associated lesions were published that propose earlier screening for adrenal lesions and delayed screening for retinal lesions (34). Revised screening criteria for children have been proposed (59).

Eyes. The management of retinal hemangioblastomas is through a combination of surveillance and both ablative and nonablative treatment. It may be challenging, particularly in multiple bilateral lesions. The tumors in the region of the optic disc should be kept under surveillance unless they show evidence of progression due to potential visual loss through ablative treatments (75).

Central nervous system. Hemangioblastomas of the cerebellum are more easily approached than those of the brainstem or spinal cord. Although the resection of the solitary tumor is successful in a high percentage of cases, the final result depends on several factors, such as the nature of the hemangioblastoma, cystic versus solid (better results in cystic than in solid lesions), localization, and size. The highest mortality is observed in solid tumors of the fourth ventricle (35). Microsurgical techniques and new strategies of stereotactic radiosurgical treatment with preoperative embolization of vessels that feed the hemangioblastoma have considerably improved the prognosis of these tumors in symptomatic patients with nonresectable tumors (47; 01). The result of a study suggests infratentorial craniospinal irradiation as a potential therapeutic option for hemangioblastomas in von Hippel-Lindau disease (65). Nevertheless, the strong tendency of multifocality and recurrence remain serious problems that are incompletely resolved. Erythrocytosis, probably provoked by erythropoietin stimulation from secretions of hemangioblastoma cells, resolves after resection of the tumor and reappears in recurrent cases.

Hemangioblastomas of the brainstem are more challenging surgically, and their excision should be limited to the symptomatic tumors (76). Radiosurgery also may be used to treat symptomatic tumors that are not surgically resectable.

Spinal cord hemangioblastomas should be treated only if they produce progressive symptoms. The long-term results are considerably better in cases treated surgically than in those not operated (44). Moreover, diverse techniques of modern surgery, such as microsurgery, tumoral embolization, laser therapy, radiotherapy, and radiosurgery, also have provided more options for treatment.

Renal lesions. Surgical excision of benign renal cysts is usually not recommended even though excision may prevent malignant transformation. For renal cell carcinoma, surgery is deferred until the largest lesion measures greater than 3 cm as lesions smaller than 3 cm have very low rates of metastasis (72). Nephron-sparing surgery is performed to preserve renal function and delay the need for dialysis and renal transplant (05). To minimize future procedures, removal of all feasible lesions is recommended with the use of intraoperative ultrasound to help identify smaller lesions. In the United States, lesions smaller than 3 cm are followed with active surveillance. Radiofrequency ablation and cryotherapy ablation of renal lesions can also be utilized; however, surgeries following thermal ablation techniques have higher rates of adverse events (31).

An HIF-2alpha inhibitor called belzutifan has become available to treat tumors associated with von Hippel-Lindau disease (27).

Pancreas. Recommendations for the management of pancreatic lesions have been suggested; cystic lesions can generally be managed by observation, whereas solid lesions are of greater concern due to risk of malignancy (32). Pancreatectomy is usually not indicated, even in the presence of a completely cystic pancreas, if the patient is asymptomatic and there is no evidence of malignancy. Complete excision is indicated for mucinous cystadenoma and for carcinoma.

Pheochromocytoma. This tumor should be excised as soon as it is diagnosed and localized if the patient is otherwise stable. A few reports have advocated for adrenal-sparing surgery in pediatric patients so as to postpone steroid replacement therapy (16; 69). One recommendation is to initiate screening among patients with von Hippel-Lindau disease yearly starting at age 5 (02).

Epididymis and broad ligament. In general, it is not necessary to excise cystadenomas.

Inner ear endolymphatic sac tumor. Early detection and surgical treatment of small lesions, when hearing is still present, may reduce the incidence and severity of hearing loss and vestibular dysfunction associated with these tumors (33).

Outcomes

Tumors of the brainstem and spinal cord carry a high risk including damage to neural tissue during surgical excision. The size of the lesion is important for selection of operative technique. A small retinal tumor may be resolved with photocoagulation or cryotherapy, whereas larger tumors often associated with secondary changes, such as retinal detachment, exudation, or hemorrhage, carry a high risk of visual loss. The cumulative probability of visual loss in all VHL gene carriers by age of 50 years was estimated to be 35% (74). Small, solitary tumors confined to the kidney may be excised by a glomerular sparing surgery or laser ablation, whereas a large mass may require total nephrectomy. The prognosis, in spite of surgery, continues to be poor in cases where the tumor has spread outside of the kidney and in cases of bilateral renal cell carcinomas.

Media

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Contributors

All contributors' financial relationships have been reviewed and mitigated to ensure that this and every other article is free from commercial bias.

Authors

Yelena Wilson DO

Dr. Wilson of Akron Children's Hospital has no relevant financial relationships to disclose.
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Jennifer Baccon MD PhD MHCM

Dr. Baccon of Akron Children's Hospital and Northeast Ohio Medical University has no relevant financial relationships to disclose.
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Editor

Harvey B Sarnat MD FRCPC MS

Dr. Sarnat of the University of Calgary has no relevant financial relationships to disclose.
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Former Authors

Ignacio Pascual-Castroviejo MD (original author), Cullen A Taylor MD, and Javad Towfighi MD

Patient Profile

Age range of presentation: 6 to 65+ years
Sex preponderance: male=female
Heredity: heredity typical

heredity may be a factor

autosomal dominant
Population groups selectively affected: none selectively affected
Occupation groups selectively affected: none selectively affected

ICD & OMIM codes

ICD-9: Von Hippel-Lindau syndrome: 759.6
ICD-10: Von Hippel-Lindau syndrome: Q85.8
OMIM: Von Hippel-Lindau syndrome: #193300

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Von Hippel-Lindau disease

Associated Disorders

Diabetes mellitus
Familial hemangioblastoma
Hereditary bilateral polycystic renal disease
Multiple hemangioblastoma syndrome
Pancreatic cystadenoma
- Renal and pancreatic cysts or carcinomas
- Retinal angiomatosis
- Retinocerebral angiomatosis

Differential Diagnosis

sporadic tumor cases
astrocytoma
syringobulbia
syringomyelia
renal cell carcinoma

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Hemangioblastoma
Molecular diagnosis of neurogenetic disorders

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Von Hippel-Lindau disease (VHL)

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NIH: Von Hippel-Lindau Syndrome

Von Hippel-Lindau disease

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Patient Profile

ICD & OMIM codes

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