The B1MG Maturity level model (MLM) aims to promote and facilitate the adoption of genomics by healthcare systems for making personalised medicine accessible to citizens and patients across Europe.
Experts from the B1MG project developed the MLM framework to enable all interested countries to self evaluate the level of maturity of national genomic medicine practices following a common matrix.
Browse the MLM framwework by using the tabs. Click on the ➕ to reveal more information.
Hover over pink underlined termsThis is a tooltip to quickly read definitions to read the definition without disturbing your reading. For more information about other terms, switch to the Glossary tab.
Round 1 and 2 display the updated text of the MLM based on the first and second round of analysis to validate, reformulate or reevaluate the MLM.
Each subdomain, indicator and maturity level has been coloured according to the classification criteria that defines the current level of decision:
Country/region has a dedicated governanceThe process by which decisions are made and implemented. Governance is the process by which public institutions conduct public affairs and manage public resources. for genomics in healthcare
Genomics in healthcare is established as a priority at national/regional level
There is a national/regional strategy for genomics in healthcare with a costed implementation planA multi-year roadmap that enables governments to prioritise interventions, engage stakeholders around one strategy, forecast costs and mobilise resources to meet identified gaps, namely to implement genomics in healthcare systems.
There is an investment plan at the national and/or regional levels for genomics in healthcare, with public or mixed public-private funding models
There is a framework for reimbursement or no-cost access plansDetailed set of rules that determines rights, duties and procedures to benefit from access to genomic tests at no cost for genomic tests, at the national or regional levels
There is a HTA frameworkA multidisciplinary process that uses explicit methods to determine the value of health technology at different points in its lifecycle to help decision-makers make informed decisions. to assess genomic tests in healthcare
There is a framework for cost-effectiveness assessmentCost-effectiveness analysis is a form of economic analysis that compares the relative costs and outcomes of different courses of action. of genomic tests
Societal benefitsAny advantages, gains or improvements as a result of employing a genomic approach to a group of people (e.g. patients, citizens). are considered in economic modellingStructured approaches to help decision-makers choose between alternative ways of using resources, by weighting the cost of an action against the benefits that it provides. It is frequently used to anticipate the costs and benefits of new health care technologies, policies and regulations. for genomic medicine
There are normsA set of principles of right action binding upon group members and serving to guide, control or regulate appropriate and acceptable behaviour. E.g. legislation, policies, professional regulations, codes of conduct. to protect and ensure the lawful, fair and transparent processing of personal dataData related to a living individual, who is likely to be identified by the data directly or combined with other data (e.g. through a pseudonym). [ref. Art. 4 GDPR]
There are norms protecting the confidentiality of patient genetic/genomic test results, and specifically clarifying where family members may have rights to access these results
There are norms limiting genetic/genomic testing to legitimate purposes and preventing mis-use (e.g. no employer/insurer discrimination)
There are norms to ensure appropriate consent is obtained and counselling is provided in relation to genetic/genomic testing
There are special rules to ensure that vulnerable groupsVulnerable groups of population include children, adults with diminished capacities, the elderly, racial or ethnic minorities, the socioeconomically disadvantaged, underinsured or those with certain medical conditions who are at risk for unequal healthcare access, outcomes and exploitation. have access to genetic/genomic testing, with counselling and appropriate protections to fully respect their rights and avoid their exploitation
There are norms ensuring the quality of genetic/genomic testing services (e.g. professional codes and self-regulatory bodies)
There are norms addressing the accreditation, registration, supervision, secure storage, and responsible use (including exchange and sharing) of human biological samples
There is a national strategy for promoting health research and innovation, and associated data protectionCertainity that personal data is used fairly, lawfully and transparently – for specified, explicit purposes – in a way that is adequate, relevant and limited to only what is necessary, accurate and, where necessary, kept up-to-date, for no longer than is necessary, and handled in a way that ensures appropriate security, including protection against unlawful or unauthorised processing, access, loss, destruction or damage. rules allowing sharing and further processingThe processing of personal data for a different purpose(s) than the initially collected. of health/genetic dataGenetic data.
Personal data related to the inherited or acquired genetic characteristics of an individual, which give unique information about his/her physiology or health, that result from an analysis of a biological sample from the individual in question.
Personal data.
Related to the physical or mental health of an individual independent of its origin (e.g. healthcare context, research, clinical trials, the data subject directly, smart devices).
[ref. Art. 4 GDPR] for research or treating other patients
There are norms facilitating genomic data sharing by researchers and/or healthcare providers, at the national and international levels
There are norms and processes ensuring the ethical practice and scientific integrity of genomic research
There is a national (or regional if appropriate) research ethics committee or network to effectively and efficiently oversee the conduct of multicentre genetic/genomic studies
There are literacy programmes or campaigns on genomic medicine with monitored impact on awareness
Synergies with patient associations are well established
There is a communication strategy for genomic medicine
Genomics is integrated in general university curricula for medical doctors
Genomics is integrated in general curricula for nurses
Genomics is integrated in general curricula for pharmacists
There are officially recognised professional titles and career paths for genomic medicine
There are training programmes for genetic counselling
There are life-long or continuing education programmes in genomic medicine for different healthcare professionals
There are programmes for policy makers and healthcare managers to raise awareness on genomic medicine and its implications for healthcare
There are ICT toolsInformation and communication technology, such as electronic health records, telehealth or online resources. supporting clinical interpretation of genomic results, clinical decision-making and communication with the patient implemented in public hospitals and clinics
Clinical teams for genomic medicine are multidisciplinary and include ICT, biomedical and psychology experts
Adoption of novel technologies and software tools to support clinical decisions is fit-for-purpose
There are processes established for the integration of the clinics with research outcomes
There are effective partnerships with stakeholders from the industry sector
Genomic centres are established
Guidelines for sequencing are defined
Guidelines for genomic data analysis are defined
Guidelines for sequence-metadataData that provides information about other data, specifically about genomic-sequence data. structure to support clinical interpretation are established
Guidelines for clinical interpretation of genomic resultsGuidelines for translating the technical output of a genetic or genomic test into potentially clinically actionable information. are defined.
Guidelines for clinical reporting of genomic resultsGuidelines for reporting the actionable results of a genetic or genomic test to the attending clinician and/or patient. are defined
Infrastructure and policies for data security are established
Guidelines for structuring metadata for datasetsStructured dataset metadata.
Metadata (data that provides information about other data) for datasets that supports data discoverability using international standards. are established.
Data access governance framework is established
Data sharing policies and data flows are established
Guidelines for recordA dataset record is a collection of fields of information about the same person, item or object in a database. It can be thought of as a row of information within a database table. level data structure are established
Guidelines for dataset structureThe dataset is formatted in a standard way to support interoperability, i.e. via use of international standards. are established
Data sharing infrastructure is established using a federated modelA distributed network of repositories for sharing genomic information.
Services for data receptionUniform processes (such as quality control and standardisation) to receive (download) or access (through API) both data and metadata in a consistent way, enabling infrastructures to adhere to global standards and principles for genotypic and phenotypic data. It includes logically describing datasets to an extent that they can become actionable on the infrastructure, even if they are stored nationally or locally. [Adapted from the 1+MG Scoping paper] to support interoperability are established
Computational and data infrastructure for medical reuse and secondary data analysisThe use of existing data, collected for a prior study, to pursue a research interest that is different to that of the original work. is available
Country/region has a dedicated governanceThe process by which decisions are made and implemented. Governance is the process by which public institutions conduct public affairs and manage public resources. for genomics in healthcare
Genomics in healthcare is established as a priority at national/regional level
There is a national/regional strategy for genomics in healthcare with a costed implementation planA multi-year roadmap that enables governments to prioritise interventions, engage stakeholders around one strategy, forecast costs and mobilise resources to meet identified gaps, namely to implement genomics in healthcare systems.
There is an investment plan at the national or regional level for genomics in healthcare, with public or mixed public-private funding models
There is a framework for reimbursement or no-cost access planDetailed set of rules that determines rights, duties and procedures to benefit from access to genomic tests at no cost for genomic tests, at the national or regional levels
There is a HTA frameworkA multidisciplinary process that uses explicit methods to determine the value of health technology at different points in its lifecycle to help decision-makers make informed decisions. to assess genomic tests in healthcare
There is a framework for cost-effectiveness assessmentCost-effectiveness analysis is a form of economic analysis that compares the relative costs and outcomes of different courses of action. of genomic tests
Societal benefitsAny advantages, gains or improvements as a result of employing a genomic approach to a group of people (e.g. patients, citizens). are considered in economic modellingStructured approaches to help decision-makers choose between alternative ways of using resources, by weighting the cost of an action against the benefits that it provides. It is frequently used to anticipate the costs and benefits of new health care technologies, policies and regulations. for genomic medicine
There are normsA set of principles of right action binding upon group members and serving to guide, control or regulate appropriate and acceptable behaviour. E.g. legislation, policies, professional regulations, codes of conduct. to protect and ensure the lawful, fair and transparent processing of personal dataData related to a living individual, who is likely to be identified by the data directly or combined with other data (e.g. through a pseudonym). [ref. Art. 4 GDPR]
There are norms ensuring the quality of genetic/genomic testing services (e.g. professional codes, self-regulatory bodies)
There are special rules to ensure that vulnerable groupsVulnerable groups of population include children, adults with diminished capacities, the elderly, racial or ethnic minorities, the socioeconomically disadvantaged, underinsured or those with certain medical conditions who are at risk for unequal healthcare access, outcomes and exploitation. have access to genetic/genomic testing, with counselling and appropriate protections to fully respect their rights and avoid their exploitation
There are norms to ensure appropriate consent is obtained and counselling is provided in relation to genetic/genomic testing
There are norms protecting the confidentiality of patient genetic/genomic test results, and specifically clarifying where family members may have rights to access these results
There are norms limiting genetic/genomic testing to legitimate purposes and preventing mis-use (e.g. no employer/insurer discrimination)
There is a national strategy for promoting health research and innovation, and associated data protectionCertainity that personal data is used fairly, lawfully and transparently – for specified, explicit purposes – in a way that is adequate, relevant and limited to only what is necessary, accurate and, where necessary, kept up-to-date, for no longer than is necessary, and handled in a way that ensures appropriate security, including protection against unlawful or unauthorised processing, access, loss, destruction or damage. rules allowing sharing and further processingThe processing of personal data for a different purpose(s) than the initially collected. of health/genetic dataGenetic data.
Personal data related to the inherited or acquired genetic characteristics of an individual, which give unique information about his/her physiology or health, that result from an analysis of a biological sample from the individual in question.
Personal data.
Related to the physical or mental health of an individual independent of its origin (e.g. healthcare context, research, clinical trials, the data subject directly, smart devices).
[ref. Art. 4 GDPR] for research or treating other patients
There are norms facilitating genomic data sharing by researchers and/or healthcare providers, at the national and international levels
There are norms and processes ensuring the ethical practice and scientific integrity of genomic research
There is a national (or regional if appropriate) research ethics committee or network to effectively and efficiently oversee the conduct of multicentre genetic/genomic studies
There are norms addressing the accreditation, registration, supervision, secure storage, and responsible use (including exchange and sharing) of human biological samples
There are literacy programmes or campaigns on genomic medicine with monitored impact on awareness
Synergies with patient associations are well established
There is a communication strategy for genomic medicine
Genomics is integrated in general university curricula for medical doctors
Genomics is integrated in general curricula for nurses
Genomics is integrated in general curricula for pharmacists
There are officially recognised professional titles and career paths for genomic medicine
There are training programmes for genetic counselling
There are life-long or continuing education programmes in genomic medicine for different healthcare professionals
There are programmes for policy makers and healthcare managers to raise awareness on genomic medicine and its implications for healthcare
There are ICT toolsInformation and communication technology, such as electronic health records, telehealth or online resources. supporting clinical interpretation of genomic results, clinical decision-making and communication with the patient implemented in public hospitals and clinics
Clinical teams for genomic medicine are multidisciplinary and include ICT, biomedical and psychology experts
Adoption of novel technologies and software tools to support clinical decisions is fit-for-purpose
There are processes established for the integration of the clinics with research outcomes
There are effective partnerships with stakeholders from the industry sector
Genomic centres are established
Guidelines for sequencing are defined
Guidelines for genomic data analysis are defined
Guidelines for sequence-metadataData that provides information about other data, specifically about genomic-sequence data. structure to support clinical interpretation are established
Guidelines for clinical interpretation of genomic resultsGuidelines for translating the technical output of a genetic or genomic test into potentially clinically actionable information. are defined.
Guidelines for clinical reporting of genomic resultsGuidelines for reporting the actionable results of a genetic or genomic test to the attending clinician and/or patient. are defined
Infrastructure and policies for data security are established
Guidelines for structuring metadata for datasetsStructured dataset metadata.
Metadata (data that provides information about other data) for datasets that supports data discoverability using international standards. are established at the local level.
Data access governance framework is established
Data sharing policies and data flows are established
Guidelines for recordA dataset record is a collection of fields of information about the same person, item or object in a database. It can be thought of as a row of information within a database table. level data structure are established
Guidelines for dataset structureThe dataset is formatted in a standard way to support interoperability, i.e. via use of international standards. are established
Data sharing infrastructure is established using a federated modelA distributed network of repositories for sharing genomic information.
Services for data receptionUniform processes (such as quality control and standardisation) to receive (download) or access (through API) both data and metadata in a consistent way, enabling infrastructures to adhere to global standards and principles for genotypic and phenotypic data. It includes logically describing datasets to an extent that they can become actionable on the infrastructure, even if they are stored nationally or locally. [Adapted from the 1+MG Scoping paper] to support interoperability are established
A computational and data infrastructure for medical reuse and secondary data analysisThe use of existing data, collected for a prior study, to pursue a research interest that is different to that of the original work. is available
Country/region has a dedicated governance bodyAgency/department/national working group with the legal mandate to establish and enforce legal, professional and behavioral norms of conduct, conventions and practices related to genomic medicine. for genomics in healthcare
86%
Genomics in healthcare is established as a priority at national/regional level
93%
There is a national/regional strategy for genomics in healthcare with a costed implementation planA multi-year roadmap that enables governments to prioritise interventions, engage stakeholders around one strategy, forecast costs and mobilise resources to meet identified gaps, namely to implement genomics in healthcare systems.
93%
There is public funding for genomics in healthcare
64%
Genomic tests have a reimbursement or no-cost access planDetailed set of rules that determines rights, duties and procedures to benefit from access to genomic tests at no cost at national/regional level
79%
There is a specific HTA frameworkA multidisciplinary process that uses explicit methods to determine the value of health technology at different points in its lifecycle to help decision-makers make informed decisions. for genomic testing in healthcare
64%
There is a Cost-effectiveness modelAn analytic framework used to compile the best available information on multple variables, such as clinical efficacy, health-related quality of life, resource use or costs, and estimate the costs and effectiveness of an intervention, for instance, a genomic test. for use of genomic tests in healthcare
57%
Societal benefitsAny advantages, gains or improvements as a result of employing a genomic approach to a group of people (e.g. patients, citizens). are integrated in economic modelsA structured approach to help decision-makers choose between alternative ways of using resources, by weighting the cost of an action against the benefits that it provides. It is frequently used to anticipate the costs and benefits of new health care technologies, policies and regulations. for genomics
79%
There are normsA set of principles of right action binding upon group members and serving to guide, control or regulate appropriate and acceptable behaviour. E.g. legislation, policies, professional regulations, codes of conduct. to protect and ensure the lawful, fair and transparent processing of personal dataData related to a living individual, who is likely to be identified by the data directly or combined with other data (e.g. through a pseudonym). [ref. Art. 4 GDPR]
86%
There are norms ensuring the quality genetic/genomic testing services (e.g. professional codes, self-regulatory bodies)
79%
There are special rules to ensure that vulnerable groups have access to genetic/genomic testing, with appropriate protections to avoid their exploitation
79%
There are norms to ensure appropriate consent is obtained and counselling is provided in relation to genetic/genomic testing
92%
There are norms protecting the confidentiality of patient genetic/genomic test results, and clarifying where family members may have rights to access these results
86%
There are norms limiting genetic/genomic testing to legitimate purposes and preventing mis-use (e.g. no employer/insurer discrimination)
93%
There is a national strategy for promoting health research and innovation, and associated data protectionCertainity that personal data is used fairly, lawfully and transparently – for specified, explicit purposes – in a way that is adequate, relevant and limited to only what is necessary, accurate and, where necessary, kept up-to-date, for no longer than is necessary, and handled in a way that ensures appropriate security, including protection against unlawful or unauthorised processing, access, loss, destruction or damage. rules allowing sharing and further processingThe processing of personal data for a different purpose(s) than the initially collected. of health/genetic dataGenetic dataPersonal data related to the inherited or acquired genetic characteristics of an individual, which give unique information about his/her physiology or health, that result from an analysis of a biological sample from the individual in question.
Health data
Personal data related to the physical or mental health of an individual independent of its origin (e.g. healthcare context, research, clinical trials, the data subject directly, smart devices).
[ref. Art. 4 GDPR] for research or treating other patients
86%
There are norms promoting genomic data sharing by researchers/healthcare providers
77%
There are norms and processes ensuring the ethical and scientific integrity of genomic research
79%
There is a national research ethics committee or network to effectively and efficiently oversee the conduct of multicentre genetic/genomic studies
93%
There are norms addressing the accreditation, registration, supervision, secure storage, and responsible use of human biological samples
93%
There are literacy programmes or campaigns on genomic medicine
71%
Synergies with patient associations are well established
86%
There is a communication strategy for genomic medicine
57%
Genomics is integrated in general university curricula for medical doctors
93%
Genomics is integrated in general curricula for nurses
93%
Genomics is integrated in general curricula for pharmacists
93%
There are officially recognised professional titles and career paths for genomic medicine
86%
There are training programmes for genetic counselling
86%
There are life-long or continuing education programmes in genomic medicine for different healthcare professionals
93%
There are programmes for policy makers and healthcare managers to raise awareness on genomic medicine and its implications for healthcare
86%
There are ICT toolsInformation and communication technology, such as electronic health records, telehealth or online resources. for clinical interpretation of genomic results implemented in public hospitals and clinics
79%
Clinical teams for genomic medicine are multidisciplinary and include ICT and biomedical experts
86%
Adoption of novel technologies and software tools to support clinical decisions is fit-for-purpose
86%
There are processes established for the integration of the clinics with research outcomes
86%
There is integration of stakeholders and partnerships from the industry sector
79%
Genomic centres are established
93%
Guidelines for sequencing are defined
93%
Guidelines for genomic data analysis are defined
100%
Guidelines for sequence-metadataData that provides information about other data, specifically about genomic-sequence data. structure to support clinical interpretation are established
93%
Guidelines for clinical interpretation of genomic resultsGuidelines for translating the technical output of a genetic or genomic test into potentially clinically actionable information. are defined.
100%
Guidelines for clinical reporting of genomic resultsGuidelines for reporting the actionable results of a genetic or genomic test to the attending clinician and/or patient. are defined
93%
Infrastructure and policies for data security are established
100%
Guidelines for structuring metadata for datasetsStructured dataset metadata.
Metadata (data that provides information about other data) for datasets that supports data discoverability using international standards. are established at the local level.
79%
Data sharing policies and data flows are established
79%
Data access governance framework is established
86%
Guidelines for recordA dataset record is a collection of fields of information about the same person, item or object in a database. It can be thought of as a row of information within a database table. level data structure are established
79%
Guidelines for dataset structureThe dataset is formatted in a standard way to support interoperability, i.e. via use of international standards. are established
79%
Data sharing infrastructure is established using a federated modelA distributed network of repositories for sharing genomic information.
79%
Services for data receptionUniform processes (such as quality control and standardisation) to receive (download) or access (through API) both data and metadata in a consistent way, enabling infrastructures to adhere to global standards and principles for genotypic and phenotypic data. It includes logically describing datasets to an extent that they can become actionable on the infrastructure, even if they are stored nationally or locally. [Adapted from the 1+MG Scoping paper] to support interoperability are established
79%
Computational and data infrastructure for medical reuse and secondary data analysisThe use of existing data, collected for a prior study, to pursue a research interest that is different to that of the original work. is available
86%
The Glossary includes definitions of the use and context of phrases and terminologies used in the MLM to avoid bias and personal interpretations