Consumer perspectives on genetic testing, research and services for ethnoculturally diverse populations

A panel of individuals from diverse ethnocultural backgrounds and representing a variety of genetic disorders presented their consumer perspectives on genetic programs, testing and services. Their remarks emphasized how misunderstanding and miscommunication between health care professionals and many of the populations for whom they provide services can lead to unfilled genetic service needs. Panelists recommended that health care professionals become more aware and knowledgeable about the diversity of customs, beliefs and cultures of those receiving their services. Only by building a foundation of trust and mutual respect will genetic testing, research and services become more accessible to individuals from diverse populations, their families and their communities.     

Knowledge about medical genetics in health care

Effective genetic services depend upon co-operation between medical geneticists and many different non-geneticist professionals to ensure that the most appropriate patients are referred to geneticists and that those that require long-term care receive it. Important determinants of the quality of genetic services are the knowledge that professionals have about clinical genetics and the equitable distribution of adequately resourced genetic centres. Consequently, we have investigated in a European context how much clinically relevant genetics non-geneticists know, how competent non-geneticists are in counselling their own patients, how well equipped specialist genetic centres are, who refers to genetic centres and what they refer and who offers continuing care to patients and families whose problems are not resolvable at a limited genetic clinic visit.     

Public experiences, knowledge and expectations about medical genetics and the use of genetic information

OBJECTIVE: The objectives of this study were (1) to explore public experiences, genetic knowledge, expectations of future medical genetic developments, and the attitudes towards the use of genetic information, and (2) to determine whether there are subject characteristics associated with these variables. METHODS: Participants (n = 1,308, age > or = 25 years) of a Dutch consumer panel were sent a questionnaire, specifically designed for this study. RESULTS: Response was 63% (817/1,308). A minority of respondents reported to know someone with a hereditary disease (34%) or to have used a genetic test (8%). Overall, 57% perceived a lack of genetic knowledge. In multivariate analyses, high self-rated knowledge, younger age, having heard of genetic testing, high educational level, female gender, having children living at home, being a health professional, and familiarity with genetic testing were positively associated with genetic knowledge. Future expectations of the consequences of developments in medical genetics varied between the subjects. The great majority expected great benefits for medical practice such as an increasing use of genetic aspects of disease for diagnosis or prevention. One fifth, mainly older people, anticipated a negative impact of genetic developments on society. The results also show that most people are reserved to share their genetic information with others, especially with regard to the wider public domain (e.g. industry and insurers) and employers. Remarkably, respondents were more willing to share their genetic information with scientific researchers (68%) than with their relatives (54%). CONCLUSION: This study suggests that although one fifth anticipates negative consequences of genetic developments, the great majority has high expectations about the increasing use of genetics in prevention, diagnosis and treatment of diseases. In developing educational programmes about genetic innovations in medicine, policymakers will have to take into account pre-existing lay knowledge, views and expectations of different groups of citizens towards these developments.     

Medical genetics in Zulia, a State of Venezuela

Zulia is a state located in the northwest of Venezuela. Congenital malformations, deformities and chromosomal anomalies are the second cause of infant and neonatal mortality. There are seven public and private groups providing genetic services, the most important of which, the Medical Genetic Unit at the Zulia University was created in 1973. So far, this unit has provided genetic services to 12,000 families, and has been responsible for undergraduate and postgraduate education in human and medical genetics. Prenatal diagnosis is performed at the Unit and a private practice group, the most frequent referral reason being advanced maternal age. The most frequent genetic diseases in the state are Huntington's disease, sickle cell anemia, neural tube defects and Down's syndrome. Research in genetics includes the clinical, epidemiological and molecular characterization of hereditary diseases, cancer, reproductive problems and genetic diversity. Other public groups are conducting research on dementias, including Alzheimer's disease, and on the genotoxic effects of environmental pollutants.     

Medical genetics in Paraguay

Paraguay is a developing country with low levels of health coverage, with 81% of the population without health insurance, a proportion that reaches 98.1% among the poor, 93% among the rural population and 91.7% among the mainly Guarani-speaking population. The infant mortality rate is 19.4 per 1,000, although there is gross under-reporting. Maternal mortality rate is alarmingly high at 110.9 per 100,000 livebirths, reaching 420.5 in rural areas. There are only two clinical geneticists and four biochemists trained in human genetics, and virtually all genetic services in the country are concentrated in the 'Instituto de Investigaciones en Ciencias de la Salud' (IICS) from the National University. The teaching of medical genetics in medical schools is included in physiology and pathology courses, while at the postgraduate level, training in medical genetics is limited to pediatrics and gynecology. In 1999, a pilot newborn screening program was initiated to determine the frequency of congenital hypothyroidism and phenylketonuria and to provide early treatment for affected babies. Another pilot project recently launched by the Ministry of Health is the Program for the Prevention of Neural Tube Defects, mandating folic acid fortification of flour, but as of the end of 2003 it had not been implemented. Paraguay lacks adequate resources to provide accurate diagnoses and treatment of genetic conditions.     

Medical genetics in Peru

Peru has a growing population characterized by notorious socioeconomic differences. The main health problems are acquired diseases related to sanitary conditions that affect mainly the large segment afflicted by poverty and extreme poverty. The state's health policy does not contemplate any action on congenital or genetic conditions, and genetic services are considered a very low priority. In spite of this, some of the best medical schools have undergraduate and graduate programs in genetics, and there is a growing group of specialists that makes its best to impulse the practice of medical genetics in Peru. Many ethical and legal dilemmas, common to other countries in the region, and derived from social inequality, and political, cultural and religious factors, are also faced in everyday practice.     

The Human Genome Project,genetics and health

Three main reasons why a genetic approach is unlikely to be a solution to common diseases in the foreseeable future are discussed. The first is the great importance of environmental circumstances in determining health, the second reason is the great complexity of gene/gene, gene/environment interactions, and the third reason is human behavior with regard to compliance with medical recommendations. Since particular interests are likely to push for a genetic approach to disease, there will be a need to protect the public interest so that premature and inappropriate use of genetics is not made, and so that a balanced opportunity to better the health of all is not missed.     

Medical genetics services in the city of Sao Paulo, Brazil

The city of Sao Paulo is located in the center of a metropolitan area with nearly 18 million inhabitants and 300,000 births/year. The currently existing medical genetics services are unable to meet the demand, due to their insufficient physical and personnel infrastructure. Institutions and experts in medical genetics could give short training and refresher courses to health professionals to enable them to work in the public health network. The city has a reasonably well developed health care network, represented by the Single Health System (Sistema Unico de Saude - SUS) and by the Family Health Program (Programa de Saude da Familia - PSF). The financial resources for such actions originate in the budget of the managing agencies of such systems. The limitations of genetic services provided to the population of the city could be overcome in a short period of time by developing programs within the public health care network. The city has institutions, professionals and financial resources to make this project feasible. To that end, the competent authorities of the Sao Paulo State and City Secretariats of Health should take managerial responsibility for the genetic services in the city.     

Social, political, and epistemological aspects of genetics and genomics

The papers in this special issue were first given at a conference in Toronto, Canada, in April 2004 entitled 'Genomics, Genetics, and Society: Bridging the Disciplinary Divides'. The papers fall into four intersecting themes. (1) The introduction of genetic and genomic technologies into communities. (2) Governance, the morals of scientific discourse and policy making. (3) What is a gene? (4) Public knowledge, public trust and improved dialogue between the public and scientists.     

Nonlinear diffusion in population genetics

Archive for Rational Mechanics and Analysis -     

Education in medical genetics for physicians: Germany

We have assessed the relative amount of genetics education at each of the 3 levels of medical training in Germany, namely the undergraduate, postgraduate and continuous medical education stages. Our data show that genetics is ill represented at all levels. Written examinations at the end of the relevant section at the undergraduate level include very few questions related to medical genetics, and particularly few in subjects such as pathology, internal medicine and gynaecology and obstetrics. At the postgraduate level, only 4 specialties require knowledge in medical genetics that may be subject to examination. At the continuous medical education level, medical genetics plays a very minor role. All 3 levels have been subject to reform in recent years, but effects that might ensue from these reforms cannot be expected before 2008.     

Legal and policy issues in genetics and insurance

Genetic screening and testing techniques provide a powerful diagnostic tool for the acquisition of predictive information. The potential value of such diagnostic techniques cannot be overstated. However, commercial organisations such as insurance companies and employers are also highly interested in the acquisition and use of genetic information. Concerns about the potential abuse of genetic information have stimulated a counter-current of public pressure for restrictions on the use which can be made of genetic diagnostic information. In a number of countries this pressure has generated enough concern to stimulate legislatures to enact laws which curtail the use and acquisition of genetic information. This pattern has clearly emerged in the United States of America and there are indications that similar trends are developing in Europe. This paper examines the law and policy issues arising from the interface between genetics and insurance.     

Attitudes toward genetic counseling in the United Arab Emirates

AIMS: To assess the level of understanding of genetic advice given in the Genetic Clinic and attitudes toward consanguineous marriages, and prenatal, abortion and preconception diagnoses. METHODS: One hundred couples underwent structured interviews, and various social and educational data, reason for referral and diagnosis and advice given were recorded. Three months later, the couples were asked open-ended questions about the perceived causation of the disease, recurrence risk, plans for births, and prenatal, abortion and preconception diagnoses. RESULTS: Half of the couples acknowledged a genetic basis for their child's condition but only 10 remembered the risk given to them. There was a high correlation between educational level and remembering the risk, and the number of healthy children and future plans for further children. Almost half preferred consanguineous marriages and only 10% agreed with prenatal diagnosis and abortion, while 75% agreed with carrier screening and preconception diagnosis in affected families. CONCLUSION: Effective genetic counseling in this community requires an informed educated population and introduction of carrier screening and preconception diagnosis in affected families.