UNIVERSITY OF THE WITWATERSRAND, JOHANNESBURG

Primary Speciality in Medical Genetics

Registrar posts will be advertised in the first half of 2008 for training beginning in July 2008.

College Certificate in Medical Genetics and concurrent MMed in Medical Genetics

Offered by the Division of Human Genetics, School of Pathology, National Health Laboratory Service and University of the Witwatersrand, Johannesburg, South Africa, in the Faculty of Health Sciences.

Course Co-ordinators: Professor Amanda Krause

Tel: 011- 489 9219

e-mail: amanda.krause@nhls.ac.za

Professor Arnold Christianson

Tel: 011-489-9212

e-mail: arnold.christianson@nhls.ac.za

Minimum entry qualifications

For admission the candidate must hold a qualification to practise medicine which is registered with the Health Professions Council of South Africa and have completed the period of community service. Preference will given to applicants who have at least twelve months experience in Paediatrics and/or Obstetrics and Gynaecology and/or Internal Medicine. This experience should be obtained in a level 2 or higher facility.

Training requirements

Trainees are required to spend 4 years full time in training in an HPCSA accredited unit. Trainees need to ensure that they are registered for this time with the HPCSA against their designated senior specialist numbers.

Trainees also need to be registered with the University of the Witwatersrand for the MMed Medical Genetics

Course outline

The course extends over four years in which the candidate will learn the principles and applications of medical, clinical and community genetics, together with the principles and practices of genetic counselling, and the interpretation of laboratory genetic tests. At the end of four years the individual will be a competent medical geneticist. In addition, a research project is carried out and is written up as a research report. This provides the student with an introduction to research methodology, protocol writing, ethics and grant applications.

There will be a formal course work component comprising tutorials, essays and case-reports. Information and skills will be applied through genetic counselling and clinical work under supervision. In addition, experience will be gained by attendance at regular departmental meetings and seminars, journal club presentations and presentations at conferences, educational meetings and community visits.

The University requires individuals in training to be registered with the Faculty of Health Sciences for the 4 years. This will be in the MMed in the Specialty of Medical Genetics.

It is expected that the candidate will write the College of Medicine Certificate in Medical Genetics Part 1 and Part II and will complete their MMed degree, together with their required examinations.

The Course will comprise the following:

Departmental Orientation

Trainees will be given an orientation programme covering departmental organization, computer orientation, organization of clinics, organization of departmental patient filing and billing systems.

Techniques course

A techniques course is usually run in February attached to the BSc (Hons) course for four weeks. The cytogenetics course covers tissue culture from amniocentesis, chorionic villus biopsies and blood, banding and karyotyping, chromosome nomenclature, and the FISH technique. The biochemical genetics component includes an introduction to electrophoresis, enzyme assays, paternity testing and culture free aneuploidy screening. The Molecular Genetics component includes DNA extraction, PCR and an introduction to DNA sequencing and DHPLC and microarray technology. It is imperative to attend this course.

MMed Medical Genetics Courses

There are 3 separate course components- Principles and Practices of Genetic Counselling, Medical Genetics, and Clinical Genetics for Medical Geneticists. For all courses, tutorials are intended for discussions rather that didactic lectures. Readings will be provided and the individuals will be expected to take an active part. Medical Genetics and Genetic Counselling will be run through the first 2 years and will be written in Part I CMSA exams. Clinical Genetics will be run in years 3 and 4 and will be examined in Part II CMSA exams. Tutorials will take place at fixed times which will be determined by the time the course commences. All trainees will be given a detailed timetable. The core skills obtained through this course should include history taking, physical examination and clinical diagnosis; interpretation of pedigree data, use of computers in syndrome diagnosis, database searching and risk estimation, routine procedures necessary for the practice of clinical genetics, e.g. skin biopsy, blood collection, and family studies.

1. Principles and Practices of Genetic Counselling

Eighty hours of formal teaching

The course deals with the principles and practices of genetic counselling, which have relevance to the future counsellors and clinical geneticists. The theoretical component includes a basic counselling skills course, tutorials on the principles and techniques of counselling, communication skills, and social, cultural and legal aspects of counselling psychosocial theory of bereavement, coping skills and stress responses, including recognition of basic psychopathology, as well as community genetics and principles of screening. The practical component includes ?hands-on? genetic counselling training, with 5 case reports and 4 counselling assessments.

(See Appendix A1 for detailed curriculum.)

A separate year programme will be handed out

2. Medical Genetics

Eighty hours of teaching.

The course deals with all aspects of medical genetics, which have relevance to future genetic counsellors and clinical geneticists. It includes tutorials in cytogenetics, biochemical and molecular genetics, Mendelian and non-Mendelian inheritance, embryology, teratogens, risk calculation, formal genetic segregation analysis, including methods and interpretation of linkage analysis; statistical approaches to risk interpretation, population genetics and bioinformatics, cancer genetics. It also covers prenatal diagnostic techniques and the laboratory techniques used in medical genetics. Six essays are written for this course. .

(See Appendix A2 for detailed curriculum).

A separate year programme will be handed out)

3. Clinical Genetics

Eighty hours of teaching. The aim is to familiarise trainees with a broad range of genetic syndromes. They will be expected to have knowledge of the clinical features, molecular basis, diagnostic tests, and recent research on the conditions selected. As it is not possible to cover all genetic conditions, tutorials will aim at dealing with common conditions and providing an approach to management of groups of conditions.

In view of the small number of trained clinical geneticists in the country, an attempt is made to use all the national expertise by inviting lecturers from different departments. In addition, visiting lecturers from overseas are included when this is opportune.

(See Appendix A3 for detailed curriculum).

A separate year programme will be handed out

Laboratory rotation

Trainees will spend 4 months attached to each of the diagnostic laboratories ? Molecular Genetics, Cytogenetics, and Serogenetics. During this time they will be involved in weekly meetings and activities of the laboratory, will review results and reports with the laboratory supervisor and/or senior clinician affiliated to the laboratory. This is intended to be sufficient to acquire the necessary experience and competence in interpretation of the results of laboratory testing in these areas. Hands-on experience is recommended in at least one of these disciplines.

Research Report

As the medical geneticist posts are within an academic department, it is anticipated that trainees will embark on research activities during their second year. There will be a supervised research project on an original topic acceptable to the student and supervisor in the field of medical genetics. The student will be expected to use their acquired skills in medical genetics and counselling to carry out this project and report. It is intended that the project be commenced in the second year. A detailed protocol for the project needs to be submitted to the Higher Degrees Committee of the Faculty of Health Sciences. Ethics approval will need to be obtained through the Committee for Research on Human Subjects. The project will be written up in a form approved by the supervisor and will be submitted for examination purposes prior to writing Part II examinations. The report should not exceed 60 pages, including references.

Students will be expected to present their projects to the Department of Human Genetics at the Thursday Seminar.

Clinic attendance

As this is a hands-on course, it is expected that registrars will be in the Division during working hours. They will be allocated desk-space in the clinician/counsellors area of the division, where there are adequate computers and resources available. They will attend all genetic counselling clinics, initially as observers, but later as their competence grows, as supervised and independent counsellors. They will be allocated to particular clinics/counsellors. Teaching and mentoring takes place at the clinics and at the post-clinic consultations. They will be expected to start writing counselling letters to patients from the beginning of the course, and to be present when telephonic follow-up is done on patients. Registrars will also be expected to handle clinical calls coming in to the Division and to fit in with the call roster.

Formal assessment

At six monthly intervals the registrars will meet with the course co-ordinators to discuss progress and to provide feedback. The process is designed to be supportive and instructive of the student rather than judgmental or critical. These assessments are also required by the College of Medicine of South Africa to ensure adequate supervision and training.

Other Information

Genetic Counselling Clinics

Trainees are expected to attend clinics regularly on a roster basis. This is where trainees will acquire counselling skills as well as hands-on clinical experience, initially by observation and then by undertaking their own interviewing and counselling, as their competence increases.

The department holds genetic counselling clinics as follows:


Monday: Cystic Fibrosis Clinic

Haemophilia Clinic
Donald Gordon Medical Centre Clinical Cases

Tuesday : Donald Gordon Medical Centre Clinical Cases

Cystic Fibrosis Clinic

Haemophilia Clinic


Wednesday:
Johannesburg Hospital Antenatal Cases

Metabolic Clinic

Cystic Fibrosis Clinic


Thursday:
Chris-Hani Baragwanath Hospital Clinical Cases

Johannesburg Hospital Monthly Cardiac Clinic


Friday:
Coronation Hospital Clinical and Antenatal cases

Johannesburg Hospital Clinical Cases

Johannesburg Hospital monthly Neurogenetic clinic

TMI Visual Impairment Clinic

Johannesburg Hospital Monthly craniofacial clinic

Other patients may be seen on an ad hoc basis. Patients at other hospitals who are too ill to attend our clinics may need to be evaluated.

Outreach clinics

These are undertaken from time to time, both in the Gauteng region and further afield eg Northern Cape, Eastern Cape, Mpumalanga and Northern Province. These are opportunities for trainees to see large numbers of cases, and they will be expected to attend.

Regular Departmental Events

Monday 08h30-09h30: Clinical Division Business Meeting ? This is a fortnightly business and administrative meeting, with discussion of all administrative issues impacting on the clinical division. All clinicians, counsellors, trainees and students to attend.

Monday 09h30-10h30: Clinicians Case Discussions ? This is a weekly academic meeting to discuss interesting cases and management problems. All clinicians to attend

Tuesday 12h30-14h00: Post Clinic Meeting ? discussion of all patients from previous week. This is an important learning session with input from all clinical and counselling staff and students. This is as opportunity for all individuals involved in clinics with the Department of Human Genetics, NHLS to meet and discuss issues. This is a CPD accredited activity

Thursday 09h00-10h00: Human Genetics Seminar: This is a forum for presentation of research from the Human Genetics and related fields, Seminars are given by members of the Department as well as invited lecturers from other Departments in the NHLS and University, and from other academic centres nationally and internationally. A trainee would be expected to present at this venue once during their second year. This is a CPD accredited activity

Wednesday 12h00-14h00: Dysmorphology Meeting

This is held approximately monthly. The dates are set for the year. This is a CPD accredited activity.

Tutorials for MBBCh II and III and BSc (Hons)

Lectures and tutorials are given by the Department in the MBBCh II & III courses. There is also a BSc (Hons) course in Human Genetics in the Department. These courses may be useful to enhance core knowledge in human genetics, where these tutorials fit in with the rest of the schedule.

Field trips

Outreach clinics in several provinces and associate research projects, particularly FAS. Trainees expected to participate when required.

Working hours

These are generally 8h30-17h00, although trainees would be expected to attend meetings and undertake clinics that take place outside of these times.

Leave

The total number of leave days specified in the contract should preferably be taken during the following holiday periods:

2 weeks at Easter

Month of July

Mid- December to mid January

At these times there will be no formal teaching. However, if a person is not on leave they should attend all regular meetings and clinics at these times.

If necessary to take leave at other times, this should be discussed with the Head of the Division well in advance.

All leave needs to be coordinated with the other clinicians and the other registrars, through the Head of Clinical Section.

Log books

It is essential to keep a record of all the patients seen, including name, date of birth, age, referring diagnosis, final diagnosis, date seen, counselling undertaken and student?s role with the patient (observer or counsellor). It should be signed on a weekly basis by the clinician/counsellor involved with the case. Trainees need to log a minimum 100 patients personally seen in a supervised situation per year.

Call Rosters

There is a call roster for the clinicians of the Department. An individual is on call for a week at a time. The clinician on call is generally expected to handle all clinical calls coming into the Department. These are generally calls regarding new patients or occasionally patients seen a number of years ago. Ongoing follow-up of patients is generally handled by the clinician that appraised the case originally.

Trainees will be placed on a call roster after about 6 weeks in the Department

.

Resource centre

The clinical/counselling division has a resource centre of relevant books. The books/CD?s are for reference and should not be removed from the centre for any period of time. If they are removed from the room, this needs to be recorded in the loan book.

A number of textbooks are still in individual clinician?s offices. They may be consulted, but should not be removed without it being recorded.

A list is available of the textbooks and their locations.


APPENDIX A1

List Of Tutorials for Principles and Practices of Genetic Course (HUMG7012)

Basic counselling skills course ? minimum 40 hours and minimum 40 hours experiential time supervised by qualified medical geneticists and genetic counsellors

Pedigree Drawing

Family history taking

Confidentiality and autonomy

Adult onset disease

Predictive testing

Testing of children

Termination of pregnancy

Multiple miscarriages

Prenatal diagnosis

Screening tests

Diagnostic tests

Support groups and resources

Genetics and public health

Grief counselling

Family development and dynamics

Child development


APPENDIX A2

List Of Tutorials for Medical Genetics Course (HUMG7013)

Cellular and Molecular Basis of inheritance

The cell

Structure and function of DNA, RNA and proteins

Transcription

Translation

Gene regulation

Mutations and mutagenesis

DNA repair mechanisms

Mitosis and meiosis

Cell cycle

Pedigree construction and analysis

Cytogenetics and chromosome abnormalities

Chromosome nomenclature

Chromosome structure

Chromosome number

Sex chromosomes

Methods of chromosome analysis

Karyotyping

FISH

Molecular cytogenetics

Chromosome abnormalities

Numerical abnormalities

Structural abnormalities

Microdeletion syndromes

Anatomy, Physiology And Embryology

Principles of embryology and application to dysmorphology

Fertilisation and gastrulation

Physiological changes of pregnancy and adaptation of the neonate/infant to extra-uterine life

Developmental genetics

Gender determination

Developmental gene families

Twinning

Candidates are expected to have a broad knowledge of the anatomy, physiology and embryology of the major organ systems and their application to medical genetics.

Cardiovascular system

Respiratory system

Gastro-intestinal system

Reticulo-endothelial system

Urogenital system

Musculoskeletal system

Central and peripheral nervous system

Sensory systems

Ophthalmic system

Auditory system

Olfactory system

Tactile system

Endocrine system

Reproductive system and pregnancy

Patterns of inheritance

Mendelian inheritance

Autosomal dominant inheritance

Autosomal recessive inheritance

X-linked dominant inheritance

X-linked recessive inheritance

Y-linked inheritance

Polygenic and multifactorial inheritance

Non-Mendelian Inheritance

X-chromosome inactivation

Mitochondrial inheritance

Dynamic repeat disorders

Genomic imprinting

Mosaicism

Complex disorders

Population genetics

Hardy Weinberg equilibrium principle

Founder effect

Gene flow

Genetic drift

Genetic polymorphism

Segregation analysis

Genetic linkage

Consanguinity

Twins and twinning

Molecular genetics

Principles of recombinant DNA technology

Techniques for DNA analysis and genetic testing

Linkage analysis

Mutation analysis

DNA polymorphisms

DNA sequencing

PCR

Southern blotting

RNA analysis

FISH

Microarray technology

Flow cytometry

Monoclonal antibodies

New technology

Indications for genetic testing

Identifying disease genes

Gene therapy

Developmental genetics

Gender determination

Developmental gene families

Biochemical genetics

Principles of biochemical analysis

Inborn errors of metabolism

Urea cycle disorders

Disorders of amino-acid metabolism

Organic acid disorders

Disorders of carbohydrate metabolism

Disorders of steroid metabolism

Disorders of lipid metabolism

Lysosomal storage disorders

Disorders of purine/pyrimidne metabolism

Disorders of porphyrin biosynthesis

Peroxisomal disorders

Parentage Testing

Forensic testing

Bioinformatics

Knowledge and use of electronic databases

Biostatistics

Statistical and epidemiological techniques

Mendelian disorders including risk calculations

Bayes theorem

Empiric risks

Consanguinity

Evidence based medicine

Pharmacogenetics

Immunogenetics

Cancer Genetics

Oncogenes

Tumour suppressor genes

Repair genes

Familial cancers

Breast cancer

Bowel Cancers

Multiple endocrine neoplasias

Clinical Genetics

Congenital Abnormalities

Teratogens

Common single gene disorders

Common multifactorial disorders

Common chromosome abnormalities

Clinical features, genetic principles and molecular basis of common diseases including:

Haemoglobinopathies

Fragile X syndrome

Cystic fibrosis

Albinism

Haemophilia

Duchenne muscular dystrophy

Huntington disease

Myotonic dystrophy

Neurofibromatosis

Spinal muscular atrophy

Carrier detection and predictive testing

Genetic factors in common diseases

Diabetes

Hypertension

Cardiovascular disease

Psychiatric disorders

Prenatal diagnosis

Techniques used

Amniocentesis

CVS

Cordocentesis

Ultrasound

Biochemical screening

Preimplantation genetic diagnosis

New techniques

Termination of Pregnancy Act

Reproductive options

HIV/AIDS and other STDs

Public Health Genetics

Genetic Screening

Birth defect surveillance

Genetic Registers

Epidemiology of birth defects

Care and prevention of genetic disorders

Community Genetics

Parent support groups and NGOs

Medical ethics

Informed consent

Testing of minors

Genetic screening

Eugenics

Ethics and the law

Social responsibilities of medical geneticists

Ethnicity and health

Medico-legal issues

Paediatrics in Genetics

Examination of the newborn

Examination of child

Growth

Child development

Future genetics

Genomics

Proteomics

Gene therapy

Pharmacogenetics


APPENDIX A3

List Of Tutorials for Clinical Genetics (HUMG7014)

Genetic history-taking

Pedigree construction and analysis

Dysmorphology

Principles of normal and abnormal embryogenesis

Malformations, dysplasias, disruptions and deformations

Approach to the fetus with birth defects

Examination of the fetus

Fetal management

Approach to the child with birth defects

Dysmorphology history

Dysmorphology examination

Dysmorphology diagnosis

Use of databases

Common chromosomal abnormalities

Trisomy 13, 18 and 21

Sex chromosome abnormalities ? Turner syndrome, XXY, XYY, XXX

Triploidy

Deletion/Duplication syndromes

Wolf-Hirschorn syndrome

Cri du chat syndrome

Velocardiofacial syndrome

Prader Willi syndrome

Angelman syndrome

Miller-Dieker syndrome

Williams syndrome

Tricho-rhino-phalangeal syndrome

Smith-Magenis syndrome

Pallister-Killian syndrome

Multifactorial disorders

Neural tube defects

Cleft-lip and ?palate

Talipes equinovarus

Congenital heart disease

Common complex disorders eg diabetes, hypertension, psychiatric disorders

Teratogens

Principles of teratogenesis

Alcohol

Drugs:

Warfarin

Anti-epileptics

Retinoic Acid

Thalidomide

Infections:

Rubella

Toxoplasmosis

CMV

Syphilis

HIV

Varicella

Parvovirus

Maternal Phenylketonuria

Hyperthermia

Maternal disorders

Thyroid

Diabetes

Hypertension

Cardiac disease

SLE

Malformations and disruptions

ADAM sequence

Amniotic band sequence

Limb-body wall sequence

Connective Tissue Disorders

Osteogenesis imperfecta

Ehlers-Danlos syndrome

Marfan syndrome

Pseudoxanthoma elasticum

Beals syndrome

Homocystinuria

Stickler syndrome

Cutis laxa

Skeletal dysplasias

Including classification, terminology, clinical and radiological assessment

Osteochondrodysplasias

Achondroplasia

Hypochondroplasia

Thanatophoric dysplasia

Achondrogenesis syndromes

Short-rib polydactyly syndromes

Spondyloepiphyseal dysplasia syndromes

Metaphyseal dysplasia syndromes

Chondrodysplasia punctata syndromes

Osteopetrosis

Sclerosteosis

Pyknodystosis

Cleido-cranial dysostosis

Campomelic dysplasia

Craniosynostosis syndromes

Apert syndrome

Pfeiffer syndrome

Crouzon syndrome

Saethre-Chotzen syndrome

Frontonasal dysplasia

Greig syndrome

Antley-Bixler syndrome

Multiple exostoses syndrome

Nail-patella syndrome

Langer mesomelic dysplasia

Acrodysostosis

Albright hereditary osteodystrophy

Paget?s disease

Kyphomelic dysplasia

Klippel-Feil syndrome

Jarcho-Levine syndrome

Limb defects

Polydactyly syndromes

Syndactyly syndromes

Ectrodactyly syndromes

Ectrodactyly-ectodermal dysplasia-clefting syndrome

Adams-Oliver syndrome

Radial ray abnormality syndromes

Thrombocytopaenia absent radius syndrome

Fanconi anaemia syndromes

Ulna ray abnormality syndromes

Holt-Oram syndrome

Phocomelia

Robert syndrome

Grebe syndrome

Poland sequence

Pterygium syndromes

Femoral hypoplasia-unusual facies syndrome

Sirenomelia

Caudal dysplasia sequence

Short stature syndromes

Russel-Silver syndrome

Rubinstein-Taybi syndrome

Dubowitz syndrome

Brachmann de Lange syndrome

Johannsen-Blizzard syndrome

Seckel syndrome

Hallermann-Streiff syndrome

Ellis van Creveld syndrome

Other common syndromes

Noonan syndrome

Costello syndrome

Cardio-facio-cutaneous (CFC) syndrome

rskog syndrome

Robinow syndrome

Opitz syndromes

Floating harbour syndrome

Kabuki syndrome

Facial and limb defects

Miller syndrome

Nager syndrome

Townes-Brocks syndrome

Mohr syndrome

Oculo-dento-digital syndromes

Oto-palato-digital syndromes

FG syndrome

Larsen syndrome

Cranio -facial defects

Moebius sequence

Blepharophimosis syndrome

Robin sequence

Van der Woude syndrome

Fronto-nasal dysplasia

Fraser syndrome

Branchio-oculo-facial syndrome

Branchio-oto-renal syndrome

Inborn errors of metabolism and storage diseases

Urea cycle disorders

Ornithine trans-carbamylase deficiency

Disorders of amino-acid metabolism

Phenylketonuria

Alkaptonuria

Homocystinuria

Maple syrup urine disease

Disorders of carbohydrate metabolism

Galactosaemia

Hereditary fructose intolerance

Glycogen storage diseases

Pompe?s disease (GSD II)

McArdle?s disease (GSDV)

Von Gierke?s disease (GSDI)

Disorders of steroid metabolism

Congenital adrenal hyperplasia

Androgen insensitivity

Disorders of lipid and lipoprotein metabolism

Familial hypercholesterolaemia

Smith-Lemli-Opitz syndrome

Lysosomal storage disorders

Mucopolysaccharidoses

Hurler/Scheie syndrome (MPSI)

Hunter syndrome (MPS II)

Sanfilippo syndrome (MPSIII)

Morquio syndrome (MPSIV)

Maroteaux-Lamy syndrome (MPSVI)

Sly syndrome (MPSVII)

Sphingolipidoses

Tay-Sachs disease

Gaucher disease

Niemann Pick disease

Canavan disease

Disorders of purine/pyrimidne metabolism

Lesch-Nyhan syndrome

Adenosine deaminase deficiency

Organic acid disorders

Methylmalonic acidaemia

Proprionic acidaemia

Disorders of porphyrin biosynthesis

Peroxisomal disorders

Zellweger syndrome

Adrenoleukodystrophy

Fatty Acid Transport and Oxidation disorders

Copper metabolism

Wilson disease

Menkes disease

Iron metabolism

Haemochromatosis

Hamartoses

Neurofibromatosis

Tuberous sclerosis

Incontinentia pigmenti

Hypomelanosis of Ito

Sturge-Weber syndrome

Von Hippel Lindau disease

Linear sebaceous nevus syndrome

Goltz syndrome

Aicardi syndrome

Ectodermal dysplasias

Rapp-Hodgkin EDS

Hypohidrotic EDS

Overgrowth syndromes

Beckwith-Wiedemann syndrome

Weaver syndrome

Sotos syndrome

Proteus syndrome

Klippel-Trenaunay-Weber syndrome

Marshall Smith syndrome

Cancer syndromes

Inherited breast cancers

Inherited bowel cancers

Familial adenomatous polyposis coli

Hereditary non-polyposis cancer

Peutz-Jeughers syndrome

Multiple endocrine neoplasias

Von Hippel Lindau

Retinoblastoma

Wilms tumour

Gorlin syndrome

Chromosome breakage syndromes

Ataxia telangiectasia

Fanconi anaemia syndromes

Cockayne syndrome

Progeria

Bloom syndrome

Xeroderma pigmentosa

Brain anomalies

Neural tube defects

Lissencephaly

Holoprosencephaly

Dandy Walker syndromes

Agenesis of corpus callosum syndromes

Microcephaly

Macrocephaly

Hydrocephaly

Mental retardation syndromes

X-linked mental retardation

Fragile X mental retardation syndrome

Alpha-thalassaemia mental retardation syndromes

Coffin Lowry syndrome

MASA syndrome

Other syndromes

Fryns syndrome

Cohen syndrome

Pallister-Hall syndrome

Bardet-Biedl syndromes

Coffin-Siris syndrome

Brain and neuro-muscular syndromes

Arthrogryposis syndromes

Walker-Warburg syndrome

M rden-Waker syndrome

Acro-callosal syndrome

Freeman-Sheldon syndrome

Pena-Shokier syndrome

Meckel-Gruber syndrome

Hydrolethalus syndrome

Neu-Laxova syndrome

Cerebro-oculo-facial-skeletal syndrome

Schwartz-Jampel syndrome

Dementias

Huntington disease

Alzheimer disease

Parkinson disease

Epilepsies

Associations

VATER

VACTERL

MURCS

CHARGE
OEIS

Oculo-auriculo-vertebral spectrum

Deafness syndromes

W rdenburg syndrome

Treacher Collins syndrome

Oculo-auriculo-vertebral spectrum

Pendred syndrome

Non-syndromic deafness

Visual impairment syndromes

Colour blindness

Albinism

Hereditary retinal and choroidal degeneration syndromes

Macular degeneration syndromes

Cataract syndromes

Retinoblastoma

Lenz micropthalmia syndromes

Peters anomaly

Congenital blindness

Dermatological disorders

Ectodermal dysplasias

Albinism

Pigmentary abnormalities

Piebaldism

Icthyoses

Keratoderma

Keratolytic winter erythema

Epidermolysis bullosa syndromes

Xeroderma pigmentosum

Porphyria

Pigmentation disorders ? piebaldism

Lipoid proteinosis

Skin cancers

Respiratory system

Cystic fibrosis

Kartagener syndrome

Asthma

Dynamic repeat disorders

Fragile X

Myotonic dystrophy

Huntington disease

Spinocerebellar ataxia

Friedreich?s ataxia

Neuromuscular disorders

Muscular dystrophies and myopathies

Duchenne and Becker muscular dystrophy

Emery-Dreifuss muscular dystrophy

Autosomal recessive muscular dystrophy

Limb-girdle dystrophy

Facio-scapulo-humeral dystrophy

Congenital myopathies

Spinal muscular atrophy

Hereditary motor and sensory neuropathies

Myotonic dystrophy

Non-dystrophic myotonias

Periodic paralysis

Myotonia congenital

Motor neurone disease

Movement disorders

Huntington disease

Spino-cerebellar ataxias

Immunological disorders

Immuno-deficiency disorders

Disorders of granulocyte function

Autoimmunity

Haematological disorders

Inherited bleeding/clotting disorders

Haemophilias

Von Willebrands disease

Factor V Leiden

Antithrombin 3 deficiency

Thrombocytopaenia absent radius

Inherited anaemias

Haemoglobinopathies and thalassaemias

Red cell membrane disorders

Red cell disorders

Fanconi anaemia

Blood groups

Rhesus feto-maternal incompatibility

Leukaemias and lymphomas

Urogenital disease

Congenital renal or urinary tract disorders

Renal cystic disease

Nephrotic syndrome

Renal tubular acidosis

Renal and urogenital tumours

True hermaphroditism

Androgen insensitivity syndrome

Infertility

Cardiovascular system

Congenital heart disease

Velo-cardiofacial syndrome

Cardiomyopathies

Familial dysrythmias and conduction disorders

Disorders of venous and lymphatic system

Pregnancy

Teratogenic and harmful drugs

Maternal medical problems

Diabetes

Cardiac

Endocrine

Epilepsy

SLE

Prevention of neural tube defects

HIV/AIDS

Pregnancy monitoring

Identification of high risk pregnancy

Prenatal diagnosis

Chorionic villus sampling

Ultrasound

Amniocentesis

Cordocentesis

Preimplanation genetic diagnosis