Table of Contents
Overview
Definition and Scope
Synthetic biology is defined as a multidisciplinary field that merges biology with engineering principles to design and construct new biological parts, devices, and systems, or to redesign existing natural systems. This field is characterized by its focus on living systems and organisms, aiming to create engineered biological systems that can perform specific functions, such as processing information, manipulating chemicals, and producing energy, among others.[3.1] The scope of synthetic biology extends beyond traditional genetic engineering, as it allows for the creation of entirely new sequences of DNA and biological systems from scratch. This capability is facilitated by the development of standardized genetic parts, often referred to as BioBricks, which enable modular construction of biological systems.[4.1] Synthetic biology not only enhances the efficiency of drug production but also opens avenues for the development of novel classes of medicines, thereby addressing significant global challenges.[4.1] Historically, synthetic biology can trace its roots back to early scientific endeavors, with Friedrich Wöhler's synthesis of urea in 1828 often cited as a foundational moment. More recent advancements include the successful transplantation of an entire genome from one bacterium to another by researchers at the J. Craig Venter Research Institute in 2007, marking a significant milestone in the field.[5.1] In 2010, these researchers further achieved the creation of a synthetic genome that was inserted into a bacterium, resulting in the first functioning life-form with a synthetic genome.[5.1] As synthetic biology continues to evolve, it raises important ethical and social considerations. Leading bioethics organizations emphasize the necessity for public engagement and dialogue regarding the governance of emerging synthetic biology technologies, particularly concerning their potential dual-use implications that could pose risks to public health and safety.[6.1]Key Concepts and Principles
Synthetic biology is an interdisciplinary field that merges biology, engineering, and computer science, holding significant promise for making biological systems easier to engineer and manipulate.[9.1] This field leverages advances in DNA sequencing and synthesis technologies, as well as genetic assembly methods based on standardized biological parts, such as BioBricks, which are man-made DNA sequences encoding elementary modules that can be combined to create more complex synthetic biological systems.[15.1] The BioBricks Foundation, a non-profit organization founded in 2003, aims to develop standardized biological parts and promote open-source biotechnology, with the primary objective of establishing uniform standards to ensure compatibility and ease of assembly.[13.1] By advancing these standards, the foundation plays a crucial role in facilitating the growth of synthetic biology and enabling broader participation in modern biological research.[13.1] Synthetic biology is a rapidly evolving field that aims to simplify the engineering of biological systems, thereby enabling broader participation in biological research and development, even in less formal settings.[1.1] A key component of synthetic biology is the use of standardized genetic parts, which facilitate the assembly of complex biological systems from simpler components. This approach leverages advances in DNA sequencing and synthesis technologies, as well as precise gene-editing tools like CRISPR, to enhance genetic assembly methods.[1.1] In therapeutic applications, gene therapy exemplifies the potential of synthetic biology, as it involves the replacement or modification of faulty genes to treat or prevent diseases. This innovative method is recognized for its ability to target the root genetic causes of various conditions, including sickle cell disease and cancer, with approximately two dozen products currently available on the market and hundreds of clinical trials either in progress or planned.[2.1] The field of synthetic biology encounters significant ethical and safety challenges, particularly concerning the engineering of organisms with custom functionalities. This capability necessitates that researchers and society utilize this power safely and responsibly, especially regarding the release of engineered organisms into the environment.[16.1] Addressing these ethical dilemmas is crucial, and it has been emphasized that public engagement and the involvement of ethics or social science researchers are essential components in shaping the trajectory of synthetic biology.[19.1] Furthermore, policy-makers are actively monitoring developments in the field, and several committees have been established to facilitate early public engagement activities.[19.1] This interconnectedness of enhanced public discourse and stronger ethical frameworks is vital for ensuring that advancements in synthetic biology are responsible and transparent.[18.1] As synthetic biology continues to evolve, its potential applications span various sectors, including healthcare, agriculture, and environmental sustainability. The future of this field promises revolutionary advancements that could significantly improve public health and contribute to solving pressing global challenges, such as climate change.[21.1]History
Milestones in Synthetic Biology
The history of synthetic biology is marked by several key milestones that have significantly advanced the field. One of the earliest notable events was the discovery of the Lac Operon in 1961, which laid foundational concepts for genetic regulation and manipulation, setting the stage for future developments in synthetic biology.[43.1] In 2007, a groundbreaking achievement occurred when scientists at the J. Craig Venter Research Institute successfully performed the first full genome transplant, transferring the entire genome of Mycoplasma mycoides into Mycoplasma capricolum.[45.1] This experiment demonstrated the potential for synthetic biology to manipulate and engineer living organisms at a genomic level. Following this, in May 2010, the same institute announced the creation of a synthetic genome, which was inserted into a bacterium, resulting in the first functioning life-form with a synthetic genome.[45.1] This synthetic genome was designed to be non-pathogenic, showcasing the ability to create life forms with specific, engineered characteristics. The establishment of the BioBricks Foundation in 2008 marked another pivotal moment, as it provided a key database of synthetic biology parts, facilitating the construction of artificial biological systems.[49.1] This initiative has been crucial for researchers and industry professionals working in synthetic biology, promoting collaboration and innovation. Additionally, the development of the Gibson assembly technique in 2009 by Dan Gibson and his colleagues revolutionized the assembly of synthetic DNA, allowing for the construction of larger DNA molecules more efficiently than previous methods.[48.1] This technique has become a standard in the field, enabling a wide range of applications in synthetic biology.Recent Advancements
Technological Innovations
Recent advancements in synthetic biology have led to significant technological innovations that are transforming various industries, particularly in healthcare and agriculture. One of the most notable breakthroughs is the creation of artificial cells, which exemplifies the potential of synthetic biology to design and engineer new biological systems.[87.1] This innovation not only enhances our understanding of biological processes but also opens avenues for applications in medical therapies and environmental sustainability. In the realm of agriculture, synthetic biology has enabled the development of crops that are more resilient, nutritious, and sustainable. These advancements are crucial for addressing global food security challenges and improving agricultural productivity.[87.1] Additionally, recent enhancements in photosynthetic efficiency through the engineering of light-harvesting complexes and optimization of carbon fixation pathways demonstrate the potential for synthetic biology to contribute to more sustainable agricultural practices.[88.1] In healthcare, the integration of synthetic biology with existing medical technologies has shown promise in enhancing treatment efficacy for complex diseases such as Alzheimer's and cancer. For instance, the application of synthetic biology principles in cancer therapy has led to the development of innovative strategies that target tumors more effectively, including the use of gene circuits that can induce cancer-killing effects.[92.1] Furthermore, the design of engineered cells equipped with synthetic DNA circuits allows for the controllable release of therapeutic agents in response to specific biomarkers, which is particularly beneficial for treating diseases like diabetes and various cancers.[93.1]Applications in Various Fields
Synthetic biology has emerged as a transformative force in various fields, particularly in the realm of personalized medicine. This innovative approach facilitates the development of tailored treatments by leveraging genetic engineering techniques that allow researchers to customize therapies based on individual patients' unique genetic profiles. By designing genetic circuits that respond to specific genetic mutations or variations in a patient's genome, synthetic biology enhances the precision of medical interventions.[112.1] The shift towards personalized medicine represents a significant paradigm change in healthcare, moving away from traditional one-size-fits-all strategies to a more individualized model of care. This evolution enables healthcare providers to tailor both diagnosis and treatment to the genetic makeup of each patient, thereby offering the potential for more effective and precise interventions. Such advancements ultimately aim to improve patient outcomes by ensuring that treatments are specifically aligned with the genetic characteristics of the individual.[113.1] Moreover, synthetic biology is revolutionizing precision medicine through the development of advanced drug delivery systems and cutting-edge diagnostic tools. Technologies such as CRISPR gene editing and engineered cells are at the forefront of this revolution, providing innovative solutions for complex diseases like cancer and genetic disorders.[111.1] These applications underscore the significant impact of synthetic biology across multiple domains, highlighting its role in enhancing the efficacy and personalization of medical care.In this section:
Ethical Considerations
Moral Status of Synthetic Organisms
The ethical discourse surrounding synthetic organisms primarily revolves around their moral status, a topic that delves into the philosophical and ethical implications of creating life through engineering. This discussion raises fundamental questions about the rights of these organisms and the responsibilities of their creators, intersecting with broader philosophical inquiries about the essence of life and existence itself [131.1][131.2]. Unlike the technical focus of bioproduction and biotechnology, this section emphasizes the moral considerations inherent in the creation of synthetic life forms. A critical aspect of this ethical debate is the potential environmental impact of releasing synthetic organisms. The introduction of genetically engineered organisms (GEOs) into ecosystems poses significant risks, as evidenced by historical instances of nonindigenous species introductions in the United States, which have resulted in complex ecological challenges [139.1]. Therefore, ethical decision-making in synthetic biology must be informed by comprehensive assessments of potential impacts, including socioeconomic, cultural, and ethical dimensions, to ensure responsible stewardship and risk mitigation [137.1]. Beyond environmental concerns, the moral status of synthetic organisms also encompasses societal and cultural implications. The creation of these organisms prompts discussions about equity, informed consent, and the potential for dual-use concerns, where technologies might be misapplied for harmful purposes [134.1]. It is imperative for the scientific community to engage in reflective thinking and public discourse to ensure that synthetic biology advances in a manner that respects moral considerations while addressing global challenges [138.1].Applications
Bioproduction and Biotechnology
Synthetic biology has significantly advanced bioproduction and biotechnology, particularly in the medical and pharmaceutical fields. One of the primary applications involves the integration of heterologous pathways into designer cells, which enables the efficient production of medical agents. This approach has led to enhanced yields of natural products in cell growth media, achieving levels equal to or greater than those obtained from traditional plant or fungal extracts.[169.1] Moreover, synthetic biology facilitates the construction of novel genetic circuits aimed at tumor targeting and the controllable release of therapeutic agents in response to specific biomarkers. This capability is particularly beneficial in the treatment of diseases such as diabetes and cancer, where precision medicine is crucial.[169.1] The development of engineered cells equipped with synthetic DNA circuits has also shown promise for both diagnosis and therapeutic applications, further illustrating the transformative potential of synthetic biology in healthcare.[169.1] Synthetic biology is significantly transforming drug discovery and vaccine development by impacting various stages of the process, including target validation, assay development, hit finding, lead optimization, and chemical synthesis.[175.1] Recent advancements highlight the potential of synthetic genes for rapid vaccine development, particularly in response to emerging infectious diseases, which has become a primary goal of the Coalition for Epidemic Preparedness Innovations.[177.1] Furthermore, the synthetic biology approach can save time in vaccine development, and during emergencies, it is essential that the regulatory framework allows for a streamlined process to ensure the timely delivery of safe products.[176.1] Furthermore, synthetic biology technologies are expected to continue improving healthcare outcomes by streamlining drug discovery processes and fostering innovation in medical treatments.[179.1] The engineering of synthetic vaccines, which leverage insights from natural immunity, exemplifies the potential for synthetic biology to enhance immune responses and improve vaccine efficacy.[178.1] Overall, the integration of synthetic biology into bioproduction and biotechnology is reshaping the landscape of medical research and therapeutic development, offering new avenues for addressing complex health challenges.Environmental and Health Solutions
Synthetic biology is increasingly recognized for its potential to address pressing global health challenges and environmental issues. As the field matures, it is driving significant innovations that extend beyond laboratory settings into practical applications that can benefit society at large.[172.1] One of the primary areas where synthetic biology is making an impact is in the development of engineered cells for medical applications. Researchers have made strides in engineering various types of blood cells, including platelets, red and white blood cells, and T and B cells. These advancements hold promise for better modeling of human diseases and the development of new treatments for conditions such as primary immune deficiency, bone marrow failure, and hemoglobin disorders like sickle cell disease.[174.1] Moreover, synthetic biology is being applied in three major areas that are crucial for health solutions: bioproduction, biosensing, and closed-loop therapeutic and probiotic delivery. These applications aim to create biological systems that can operate effectively outside of controlled laboratory environments, thereby addressing real-world health needs.[173.1] For instance, bioproduction can facilitate the creation of essential pharmaceuticals, while biosensing technologies can enable rapid detection of pathogens or biomarkers, enhancing disease diagnosis and monitoring. Closed-loop therapeutic systems can provide targeted treatment options, improving patient outcomes through personalized medicine approaches.[173.1]In this section:
Challenges And Future Directions
Technical and Practical Challenges
Synthetic biology holds significant promise for transforming the food industry by addressing the challenges of sustainable food supply. This field can enhance traditional food production and manufacturing processes, leading to greater efficiency and sustainability.[208.1] As the industry evolves, it is crucial to explore the current and future directions of synthetic biology research, which may guide a food revolution through innovative applications and methodologies.[208.1] By fully harnessing its capabilities, synthetic biology can contribute to creating a more sustainable food system, offering innovative solutions to food security and sustainability challenges.[208.1] This emerging field is expected to play a crucial role in the food revolution, paving the way for improvements in food production and manufacturing methods.[208.1]Future Prospects and Innovations
Synthetic biology is poised to play a transformative role in addressing global challenges, particularly in the realms of food security and sustainable agriculture. The field has the potential to enhance traditional food production and manufacturing processes, thereby contributing to a more sustainable food supply in the future.[208.1] Innovations in synthetic biology are being harnessed to create engineered organisms that can improve agricultural yields, nutritional value, and resilience to environmental stresses.[215.1] For instance, advancements in plant synthetic biology focus on enhancing photosynthetic efficiency, nitrogen fixation, and drought tolerance, which are crucial for adapting to climate change and ensuring food security.[216.1] Moreover, synthetic biology is increasingly integrated with artificial intelligence (AI) and machine learning (ML), which can provide predictive capabilities essential for optimizing synthetic biological systems.[219.1] This integration has already demonstrated significant potential, as seen in the application of AI to predict protein structures, which can accelerate the design and development of synthetic organisms.[220.1] As regulatory frameworks evolve, synthetic biology is expected to revolutionize the global food industry by offering novel solutions that meet growing consumer demands for sustainability and efficiency.[217.1] The future of synthetic biology in agriculture holds significant promise, particularly in enhancing food security and promoting sustainable farming practices. This transformative field is unlocking innovative solutions that address global challenges such as climate change and resource scarcity, with applications ranging from improving photosynthetic efficiency to developing drought-resistant crops and enhancing nitrogen fixation.[213.1] As synthetic biology continues to evolve, it is poised to revolutionize the food industry by providing novel approaches to meet growing consumer demands for sustainability and efficiency.[217.1] However, the integration of synthetic biology in agriculture is not without its challenges. Regulatory hurdles and public acceptance remain critical issues that must be navigated to ensure the safe implementation of these technologies.[217.1] Despite these obstacles, the potential for synthetic biology to create resilient agricultural systems and contribute to environmental sustainability is substantial, making it a key area of focus for future agricultural development.[218.1]In this section:
References
[1] Synthetic Biology - an overview | ScienceDirect Topics — Synthetic biology is commonly viewed as a research and engineering domain of biology where a human-designed genetic program is synthesised and transplanted into a relevant cell type from an extant organism. From: Methods in Microbiology, 2013
[2] PDF — This EBOT introduces synthetic biology and its current uses and provides a brief overview of the global synthetic biology market. What is synthetic biology? Synthetic biology is an application of biotechnology that focuses on designing and applying biological processes to innovate manufacturing processes.
[3] Synthetic biology - Wikipedia — Synthetic biology Synthetic biology Synthetic biology (SynBio) is a multidisciplinary field of science that focuses on living systems and organisms, and it applies engineering principles to develop new biological parts, devices, and systems or to redesign existing systems found in nature. Engineers view biology as technology (in other words, a given system includes biotechnology or its biological engineering). Synthetic biology includes the broad redefinition and expansion of biotechnology, with the ultimate goal of being able to design and build engineered live biological systems that process information, manipulate chemicals, fabricate materials and structures, produce energy, provide food, and maintain and enhance human health, as well as advance fundamental knowledge of biological systems (see Biomedical engineering) and our environment. ^ a b Presidential Commission for the study of Bioethical Issues, December 2010 NEW DIRECTIONS The Ethics of Synthetic Biology and Emerging Technologies Archived 2017-01-18 at the Wayback Machine Retrieved 2012-04-14. "Synthetic Biology. Synthetic Biology.
[4] What Is Synthetic Biology, And How Does It Work? — Essentially, synthetic biology seeks to merge biology with engineering, allowing scientists to create organisms or biological systems with customized functions. While genetic engineering allows scientists to modify existing DNA to achieve desired traits, synthetic biology takes this a step further by enabling the creation of entirely new sequences of DNA and biological systems from scratch. By creating standardized genetic parts (such as BioBricks), synthetic biologists can build biological systems in a modular fashion. Synthetic biology allows researchers to engineer microorganisms to produce drugs more efficiently or create entirely new classes of medicines. By combining genetic engineering, computational design, and biotechnology, synthetic biology allows scientists to design and create new biological systems that can address some of the most pressing global challenges.
[5] Synthetic biology | DNA Engineering, Genetic Modification ... — Advances in synthetic biology
[6] Synthetic Biology - National Human Genome Research Institute — Leading voices in bioethics, including the Presidential Commission for the Study of Bioethical Issues and the National Academies of Sciences, Engineering and Medicine, have expressed the importance of public engagement and dialogue in the governance of emerging synthetic biology and genome editing technologies.
[9] Bridging the gap: enhancing science communication in synthetic biology ... — Synthetic biology, an interdisciplinary field merging biology, engineering, and computer science, holds significant promise but also gives rise to ethical and safety issues and concerns. Effective communication of scientific concepts is essential to bridge the gap between the scientific community and the general public.
[13] Biobricks: Building Blocks of Synthetic Biology - RivisionTown — The BioBricks Foundation Mission and Goals. The BioBricks Foundation is a non-profit organization founded in 2003 with the mission to develop standardized biological parts, promote open-source biotechnology, and advance the field of synthetic biology. Its primary objectives include: Standardization: Establishing uniform standards for biological parts to ensure compatibility and ease of assembly.
[15] Biobricks - Latest research and news - Nature — Biobricks is a trademark term for man-made DNA sequences encoding elementary modules that may be combined to produce more complex synthetic biological systems. ... the history of synthetic biology
[16] Engineering and ethical perspectives in synthetic biology — Engineering and ethical perspectives in synthetic biology: Rigorous, robust and predictable designs, public engagement and a modern ethical framework are vital to the continued success of synthetic biology - PMC However, the power of synthetic biology to engineer organisms with custom-made functionality requires that researchers and society use this power safely and responsibly, in particular when it comes to releasing organisms into the environment. In addition to raising social and ethical issues, this creates major scientific and engineering challenges, in particular the need to design robust and predictable synthetic organisms. | Design challenge | Engineering solution | Natural organism | Synthetic biology solution | Robustness applied to synthetic biology should ensure that the dynamic behaviour of the engineered organism is not sensitive to ‘small’ expected fluctuations in the environment in which it operates.
[18] Ethics and engagement: steering China's synbio future — In the final article of the series, we delve into the crucial role of public engagement and ethical guidelines in shaping the trajectory of synthetic biology (synbio) within China's evolving scientific landscape. We discuss the interconnectedness of enhanced public discourse, stronger ethics, and responsible, transparent advancements in the
[19] PDF — encouraged or mandated the involvement of ethics or social science researchers (such as the UK research council-funded networks in synthetic biology). Policy-makers are also monitoring the field and several committees have been established. There have also been several early public engagement activities.
[21] Synthetic biology: A game changer for economic sustainability ... - OECD — Synthetic biology and other next-generation biotechnologies promise to revolutionise a range of industries, drive economic growth and contribute to solving societal challenges. ... Improving public health. Pharmaceuticals and medical technologies. The future of health systems. Explore health. ... The future of health systems. Explore health
[43] A Brief History of Synthetic Biology - Hudson — To cap off the brief history of synthetic biology, computer science leads synthetic biology into the modern era. Synthetic biology products are already available in the market today, and this burgeoning field has wide-ranging applications. 1961 - Discovery of the Lac Operon The brief history of synthetic biology starts with genetics.
[45] Synthetic biology | DNA Engineering, Genetic Modification ... — Advances in synthetic biology
[48] A Tour of Key Milestones in Synthetic Biology - Telesis Bio — Telesis Bio was originally formed as a subsidiary of Synthetic Genomics, Inc., in 2013 — but scientists from our team who helped found the company have contributed to some of the most important advances in synthetic biology since the field took off in the early 2000s. Gibson® assembly: In 2009, Dan Gibson (who later founded Telesis Bio and now serves as our Chief Technology Officer) and his colleagues developed a revolutionary assembly technique that would eventually be known simply as “Gibson assembly.” This elegant method quickly replaced restriction enzyme cloning and enabled scientists to assemble synthetic DNA into molecules hundreds of kilobases long. When the H7N9 viral genome was sequenced and published, Gibson and his colleagues used their synthetic biology skills to build the viral coat protein genes, HA and NA, which are used in flu vaccines.
[49] The Origin and History of Synthetic Biology - BCC Research — One year later, BioBricks Foundation was established. BioBricks is a nonprofit organization that catalogs synthetic biology parts that are utilized in synthetic biology, providing a key database of resources for the industry, especially for those working on constructing artificial biologic systems.
[87] Synthetic Biology Breakthroughs - Sequence BioTech — Synthetic Biology Breakthroughs Changing Industries — Sequence BioTech Synthetic Biology Breakthroughs Synthetic Biology Breakthroughs | Sequence Biotech Synthetic Biology Breakthroughs: Transforming the Biotech Landscape Synthetic biology is a revolutionary field that combines biology and engineering to design and create new biological systems. In this blog, we’ll explore some of the most exciting breakthroughs in synthetic biology and their transformative potential. One of the most futuristic breakthroughs in synthetic biology is the creation of artificial cells. In agriculture, synthetic biology is creating crops that are more resilient, nutritious, and sustainable. At Sequence Biotech, we are inspired by these innovations and are committed to contributing to a future where synthetic biology transforms lives and industries. What synthetic biology breakthroughs inspire you the most?
[88] Synthetic Biology Strategies and Tools to Modulate ... - MDPI — Recent advancements in synthetic biology have successfully enhanced photosynthetic efficiency by engineering light-harvesting complexes, optimizing electron transport, and improving carbon fixation pathways. ... Recent advancements in photo-bioreactors for microalgae cultivation: A brief overview. Processes 2024, 12, 1104.
[92] Reprogramming Synthetic Cells for Targeted Cancer Therapy — The cancer-killing effect can be further enhanced by an aspirin/salicylate inducible gene circuit that converts salicylate into catechol, a potent anticancer. This work highlights the potential of SimCells and mini-SimCells for targeted cancer therapy and lays the foundation for the application of synthetic biology to medicine.
[93] Applications of synthetic biology in medical and pharmaceutical fields — Advertisement View all journals Search Log in Explore content About the journal Publish with us Sign up for alerts RSS feed nature signal transduction and targeted therapy review articles article Applications of synthetic biology in medical and pharmaceutical fields Download PDF Download PDF Review Article Open access Published: 11 May 2023 Applications of synthetic biology in medical and pharmaceutical fields Xu Yan1, Xu Liu2, Cuihuan Zhao1 & … Guo-Qiang Chen ORCID: orcid.org/0000-0002-7226-17821,3,4 Show authorsSignal Transduction and Targeted Therapy volume 8, Article number: 199 (2023) Cite this article 40k Accesses 27 Altmetric Metrics details Subjects Biotechnology Nanobiotechnology Abstract Synthetic biology aims to design or assemble existing bioparts or bio-components for useful bioproperties. Medical and pharmaceutical demands have also pushed the development of synthetic biology, including integration of heterologous pathways into designer cells to efficiently produce medical agents, enhanced yields of natural products in cell growth media to equal or higher than that of the extracts from plants or fungi, constructions of novel genetic circuits for tumor targeting, controllable releases of therapeutic agents in response to specific biomarkers to fight diseases such as diabetes and cancers. In general, synthetic biology brings new capabilities to medical and pharmaceutical researches. This review summarizes the timeline of synthetic biology developments, the past and present of synthetic biology for microbial productions of pharmaceutics, engineered cells equipped with synthetic DNA circuits for diagnosis and therapies, live and auto-assemblied biomaterials for medical treatments, cell-free synthetic biology in medical and pharmaceutical fields, and DNA engineering approaches with potentials for biomedical applications.
[111] The Transformative Role of Synthetic Biology in Precision Medicine ... — Abstract. Synthetic biology is revolutionizing precision medicine by enabling the development of personalized treatments, advanced drug delivery systems, and cutting-edge diagnostic tools. Using technologies like CRISPR gene editing, synthetic gene circuits, and engineered cells, it offers tailored solutions for diseases such as cancer and genetic disorders.
[112] PDF — facilitates the development of personalized medicine. By leveraging genetic engineering techniques, researchers can tailor treatments to individual patients based on their unique genetic profiles. This is achieved by designing genetic circuits that can respond to specific genetic mutations or variations in a patient's genome .
[113] PDF — Personalized medicine represents a paradigm shift in healthcare, moving away from a one-size-fits-all approach to a more individualized model of care. By tailoring diagnosis and treatment to a patient's genetic profile, personalized medicine offers the potential for more effective and precise interventions, ultimately improving patient outcomes.
[131] The view of synthetic biology in the field of ethics: a thematic ... — In this context, the ethical debates in this article were examined under five themes: the moral status of synthetic biology products, synthetic biology and the meaning of life, synthetic biology and metaphors, synthetic biology and knowledge, and expectations, concerns, and problem solving: risk versus caution. In this context, Douglas and Savulescu (2010) point out that the distribution of knowledge is a relatively minor area of discussion in bioethics; however, due to the critical role of synthetic biology in knowledge production as a life science, ethics of knowledge is inevitably needed in this field. In this study, ethical debates are visible as the moral positions of synthetic biology products, the meaning of life, metaphors, the use of knowledge and expectations, concerns, and ways of solving problems.
[134] 10 Ethical Considerations in Synthetic Biology Research | Statistics ... — 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 This blog post tries to describe ten key ethical issues that researchers need in the area of synthetic biology, putting the accent on responsible stewardship and ethical integrity in this innovative field. Such concerns would include and promote safety, transparency, informed consent, and equity along with balancing out the dual-use concerns, intellectual property rights, environmental impact, responsibility in social and cultural terms, and recognition of its interdisciplinary character. Through reflective thinking and engagement with these ethical considerations, the scientific community can ensure that synthetic biology serves as a force for good in the face of some of humanity's most pressing challenges.
[137] Concept note of the International Bioethics Committee (IBC) on the ... — Therefore, for reasons of precaution and risk mitigation, decision making on synthetic biology applications should, wherever possible, be informed by the assessment of potential impacts, including socioeconomic, cultural and ethical impacts.
[138] 10 Ethical Considerations in Synthetic Biology Research | Statistics ... — 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 10 Ethical Considerations in Synthetic Biology Research | Statistics Facts 2024 This blog post tries to describe ten key ethical issues that researchers need in the area of synthetic biology, putting the accent on responsible stewardship and ethical integrity in this innovative field. Such concerns would include and promote safety, transparency, informed consent, and equity along with balancing out the dual-use concerns, intellectual property rights, environmental impact, responsibility in social and cultural terms, and recognition of its interdisciplinary character. Through reflective thinking and engagement with these ethical considerations, the scientific community can ensure that synthetic biology serves as a force for good in the face of some of humanity's most pressing challenges.
[139] The Ecological Risks and Benefits of Genetically Engineered Plants - AAAS — The release of GEOs highlights the general difficulty in predicting the occurrence and extent of long-term environmental effects when nonnative organisms are introduced into ecosystems. Nonindigenous species have been introduced into the United States intentionally and unintentionally for centuries; an estimated 50,000 species in the United
[169] Applications of synthetic biology in medical and ... - PubMed — Medical and pharmaceutical demands have also pushed the development of synthetic biology, including integration of heterologous pathways into designer cells to efficiently produce medical agents, enhanced yields of natural products in cell growth media to equal or higher than that of the extracts from plants or fungi, constructions of novel genetic circuits for tumor targeting, controllable releases of therapeutic agents in response to specific biomarkers to fight diseases such as diabetes and cancers. This review summarizes the timeline of synthetic biology developments, the past and present of synthetic biology for microbial productions of pharmaceutics, engineered cells equipped with synthetic DNA circuits for diagnosis and therapies, live and auto-assemblied biomaterials for medical treatments, cell-free synthetic biology in medical and pharmaceutical fields, and DNA engineering approaches with potentials for biomedical applications.
[172] Ten future challenges for synthetic biology - PubMed — Ten future challenges for synthetic biology Eng Biol. 2021 Aug 2;5(3):51-59. doi: 10.1049/enb2.12011. eCollection 2021 Sep. Authors ... synthetic biology has now become a mature field that is driving significant innovation in the bioeconomy and pushing the boundaries of the biomedical sciences and biotechnology. So what comes next?
[173] Applications, challenges, and needs for employing synthetic biology ... — Advertisement View all journals Search Log in Explore content About the journal Publish with us Sign up for alerts RSS feed nature nature communications perspectives article Applications, challenges, and needs for employing synthetic biology beyond the lab Download PDF Download PDF Perspective Open access Published: 02 March 2021 Applications, challenges, and needs for employing synthetic biology beyond the lab Sierra M. Brooks ORCID: orcid.org/0000-0002-6914-25041 & Hal S. Alper ORCID: orcid.org/0000-0002-8246-86051,2 Nature Communications volume 12, Article number: 1390 (2021) Cite this article 51k Accesses 62 Altmetric Metrics details Subjects Biotechnology Synthetic biology Abstract Synthetic biology holds great promise for addressing global needs. However, most current developments are not immediately translatable to ‘outside-the-lab’ scenarios that differ from controlled laboratory settings. Here we analyze recent advances in developing synthetic biological platforms for outside-the-lab scenarios with a focus on three major application spaces: bioproduction, biosensing, and closed-loop therapeutic and probiotic delivery. We focus this Perspective on three major application spaces for the outside-the-lab deployment of synthetic biology: bioproduction, biosensing, and closed-loop living therapeutic and probiotic delivery.
[174] Using Cells as Medicine - Harvard Medical School — Daley and others in the field have since expanded their efforts into engineering platelets, red and white blood cells, and T and B cells. The results could help researchers to better model human diseases and could also lead to new treatments for primary immune deficiency, bone marrow failure, hemoglobin disorders such as sickle cell disease
[175] A Perspective on Synthetic Biology in Drug Discovery and Development ... — A Perspective on Synthetic Biology in Drug Discovery and Development—Current Impact and Future Opportunities - ScienceDirect A Perspective on Synthetic Biology in Drug Discovery and Development—Current Impact and Future Opportunities Open access In this review, we highlight recent examples of the impact of synthetic biology on target validation, assay development, hit finding, lead optimization, and chemical synthesis, through to the development of cellular therapeutics. Synthetic biology is certainly impacting all stages of drug discovery and development, and the recognition of the discipline’s contribution can further enhance the opportunities for the drug discovery and development value chain. Next article in issue For all open access content, the relevant licensing terms apply.
[176] Build a Sustainable Vaccines Industry with Synthetic Biology — The synthetic biology approach can save time in the development of a vaccine. In times of emergency, the regulatory regime should enable a streamlined process to save more time whilst still delivering a safe product.
[177] Synthetic biology speeds vaccine development - Nature — The possibility of using synthetic genes for rapid vaccine development against emerging infections also became one of the main goals of the Coalition for Epidemic Preparedness Innovations, a
[178] Advanced technologies for the development of infectious disease vaccines — Advanced technologies for the development of infectious disease vaccines | Nature Reviews Drug Discovery L. Engineering synthetic vaccines using cues from natural immunity. This study shows that vaccines inducing a strong antigen-specific CD8+ memory T cell response lower the threshold of neutralizing antibodies to elicit protection against the infection, indicating a potential synergy between TRM cells and antibody responses. Vaccine additives that activate pattern recognition receptors to boost cytokine release and recruit immune cells, enhancing the antigen-specific immune response. Springer Nature or its licensor (e.g. a society or other partner) holds exclusive rights to this article under a publishing agreement with the author(s) or other rightsholder(s); author self-archiving of the accepted manuscript version of this article is solely governed by the terms of such publishing agreement and applicable law.
[179] Breakthroughs and Future Prospects of Synthetic Biology in Drug ... — As synthetic biology technologies advance, they are expected to enhance drug discovery processes and improve healthcare outcomes, making them a focal point for future research and innovation. In summary, the recent advancements in synthetic biology, particularly the engineering of the 10-92 enzyme for TNA production at UCI, highlight the
[208] Synthetic biology for future food: Research progress and future directions — Overall, synthetic biology driven food industry has the potential to address the challenges of sustainable food supply in the future. In this review, we discuss the current and future food revolution guided by synthetic biology through three different sections. First, synthetic biology can improve the traditional food production and manufacturing.
[213] Prospects for synthetic biology in 21 st Century agriculture - PubMed — Plant synthetic biology has emerged as a transformative field in agriculture, offering innovative solutions to enhance food security, provide resilience to climate change, and transition to sustainable farming practices. Here we highlight recent advancements and applications of plant synthetic biology in agriculture, focusing on key areas such as photosynthetic efficiency, nitrogen fixation, drought tolerance, pathogen resistance, nutrient use efficiency, biofortification, climate resilience, microbiology engineering, synthetic plant genomes, and the integration of artificial intelligence (AI) with synthetic biology. Despite challenges related to regulatory approval and public acceptance, the integration of synthetic biology in agriculture holds immense promise for creating more resilient and sustainable agricultural systems, contributing to global food security and environmental sustainability. Keywords: AI integration; Genetic circuits; Nitrogen fixation; Photosynthesis; Plant synthetic biology; Precision Agriculture.
[215] The Role of Synthetic Biology in Food Security | Request PDF - ResearchGate — Synthetic biology emerges as a promising solution by reducing fertilizer dependency, enhancing plant sciences, and offering potential improvements in nutritional value, yield, and carbon efficiency.
[216] Prospects for synthetic biology in 21 st Century agriculture - PubMed — Plant synthetic biology has emerged as a transformative field in agriculture, offering innovative solutions to enhance food security, provide resilience to climate change, and transition to sustainable farming practices. Here we highlight recent advancements and applications of plant synthetic biology in agriculture, focusing on key areas such as photosynthetic efficiency, nitrogen fixation, drought tolerance, pathogen resistance, nutrient use efficiency, biofortification, climate resilience, microbiology engineering, synthetic plant genomes, and the integration of artificial intelligence (AI) with synthetic biology. Despite challenges related to regulatory approval and public acceptance, the integration of synthetic biology in agriculture holds immense promise for creating more resilient and sustainable agricultural systems, contributing to global food security and environmental sustainability. Keywords: AI integration; Genetic circuits; Nitrogen fixation; Photosynthesis; Plant synthetic biology; Precision Agriculture.
[217] Synthetic Biology: The Future of Food or a Pandora's Box — From lab-grown cocoa to precision-fermented dairy, synthetic biology is unlocking new possibilities for sustainability, efficiency, and food security. What is Synthetic Biology in Food Production? As regulatory frameworks evolve, synthetic biology is poised to revolutionize the global food industry, offering novel solutions to meet growing consumer and sustainability demands. While these breakthroughs are exciting, synthetic biology in food production faces several obstacles: Regulatory Hurdles – Governments and food safety authorities worldwide are grappling with how to regulate synthetic biology products. How should synthetic biology products be monitored for food safety risks? As food safety and regulatory professionals, we must proactively engage with these developments, ensuring that synthetic biology enhances food security without introducing new risks.
[218] Synthetic biology: A powerful booster for future agriculture — Synthetic biology: A powerful booster for future agriculture - ScienceDirect Synthetic biology: A powerful booster for future agriculture open access Synthetic biology has transformed various aspects of agriculture. Synthetic biology promote the sustainable development of modern agriculture. The vigorous development of synthetic biology has brought new opportunities for modern agriculture. Synthetic biology can transform crops' metabolic pathways and genetic information and involves microorganisms' application in agriculture. This perspective summarizes the application status and future development of synthetic biology in agriculture from the aspects of plant breeding, photosynthetic system, nitrogen fixation, and microorganisms. Previous article in issue Next article in issue No articles found. All content on this site: Copyright © 2024 Elsevier B.V., its licensors, and contributors. For all open access content, the Creative Commons licensing terms apply.
[219] Special Issue on Artificial Intelligence for Synthetic Biology — Artificial intelligence (AI) and machine learning (ML) show promise in providing the predictive power that synthetic biology needs and can be applied in all parts of the synthetic biology process (Figure 1).
[220] Artificial Intelligence Powering Synthetic Biology: The Fundamentals ... — That in turn makes synthetic biology scalable. A breakthrough demonstration of AI's potential to aid synthetic biology came in 2018, when Google's AI research laboratory, DeepMind, used machine learning software, called AlphaFold 1, to predict 25 protein structures. A team of humans taking part in the same experiment correctly predicted just