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市場調査レポート
商品コード
1552976
心臓組織工学市場 - 市場規模、シェア、動向:材料別、製品別、用途別、エンドユーザー別、地域別 - 2029年までの予測Cardiac Tissue Engineering Market Size, Share & Trends by Material, Product, Applications, End-User - Global Forecast to 2029 |
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心臓組織工学市場 - 市場規模、シェア、動向:材料別、製品別、用途別、エンドユーザー別、地域別 - 2029年までの予測 |
出版日: 2024年09月09日
発行: MarketsandMarkets
ページ情報: 英文 337 Pages
納期: 即納可能
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世界の心臓組織工学の市場規模は、2024年の6億2,120万米ドルから2029年には13億3,360万米ドルに達し、2024年から2029年までのCAGRは16.5%になると予測されています。
市場成長の原動力は、3Dバイオプリンティングの技術進歩です。同市場はまた、世界中で心血管疾患が急増していることも追い風となっています。しかし、心臓組織工学プロセスによる心血管疾患の治療に関連する高コストは、市場の成長に影響を与えています。さらに、心臓組織工学の分野における厳しい規制政策は、市場成長を抑制する主な要因となっています。
調査範囲 | |
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調査対象年 | 2021年~2029年 |
基準年 | 2023年 |
予測期間 | 2024年~2029年 |
検討単位 | 金額(100万米ドル) |
セグメント別 | 材料別、製品別、用途別、エンドユーザー別、地域別 |
対象地域 | 北米、欧州、アジア太平洋、ラテンアメリカ、中東・アフリカ、GCC諸国 |
材料別では、セグメントは幹細胞とスキャフォールドに分けられます。スキャフォールドセグメントはさらに合成スキャフォールドと生物学的スキャフォールドに分けられます。生物学的スキャフォールドはさらにコラーゲンベースのスキャフォールドとハイドロゲルベースのスキャフォールドに区分されます。2023年には、これら2つの生物学的スキャフォールドのうち、ハイドロゲル系スキャフォールドが心臓組織工学市場で大きなシェアを占めています。これは、天然組織の特性を忠実に模倣した汎用性の高い特性によるものです。ハイドロゲルは細胞外マトリックスのように高度に水和したネットワークで構成されており、組織再生に不可欠な細胞の接着、増殖、分化を促進します。ハイドロゲルの機械的特性は、特定の組織の特性に合うように広い範囲で調整することができ、生体内での適合性と統合性を高めます。この調整可能性により、最適な多孔性、生分解性、透過性を持つスキャフォールドを設計することができ、細胞の生存と組織の発達に不可欠な栄養と酸素の拡散を促進することができます。
用途別では、心臓組織工学市場は心筋梗塞、心臓弁修復/置換、先天性心疾患治療、その他に区分されます。2023年では、これらの中で先天性心疾患治療が大きなシェアを占めています。これは、世界的に先天性心疾患に関連する有病率が上昇し、重大な医療ニーズが高まっていることに起因しています。例えばオーストラリアでは、約65,000人が先天性心疾患を抱えており、主な原因として毎年約5,900例が診断されています。この疾患は年間79人の乳幼児死亡の原因ともなっており、公衆衛生への深刻な影響を浮き彫りにしています。同様に米国では、毎年4万人近くの乳児が先天性心疾患を持って生まれており、高度な治療法を必要とする患者が多数存在することが明らかになっています。心臓組織工学は、欠陥のある心臓組織を修復したり置換したりするためのオーダーメイドのアプローチを提供することで、先天性心疾患に対する有望な解決策を提供します。これらの技術革新は、先天性心疾患特有の解剖学的・生理学的課題に対処する上で極めて重要であり、多くの場合、乳幼児期から成人期まで、個別化された耐久性のある介入が必要となります。世界的に先天性心疾患の発生率が増加していることから、患者の転帰と生活の質を改善できる革新的な治療法に対する需要が高まっており、心臓組織工学市場における先天性心疾患分野の存在感を高めています。
当レポートでは、世界の心臓組織工学市場について調査し、材料別、製品別、用途別、エンドユーザー別、地域別動向、および市場に参入する企業のプロファイルなどをまとめています。
The global cardiac tissue engineering market is projected to reach USD 1,333.6 Million by 2029 from USD 621.2 Million in 2024, at a CAGR of 16.5% from 2024 to 2029. The growth of the market is driven Technological advancement in 3d bioprinting. The market also benefits from the up surge in prevalence of cardiovascular diseases across the globe. However, high cost associated with treating cardiovascular diseases by cardiac tissue engineering process, is impacting the growth of the market. Moreover, the stringent regulatory policies in the field of cardiac tissue engineering are a major factor restraining the market growth.
Scope of the Report | |
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Years Considered for the Study | 2021-2029 |
Base Year | 2023 |
Forecast Period | 2024-2029 |
Units Considered | Value (USD Million) |
Segments | By Material, Product, Application, End User |
Regions covered | North America, Europe, Asia Pacific, Latin America, the Middle East & Africa, and GCC Countries |
"Hydrogel based scaffolds segment to witness the significant growth during the forecast period."
Based on material, the segment is divided into stem cells, and scaffolds. The scaffolds segment is further divided into synthetic scaffolds and biological scaffolds. The biological scaffolds are further segmented into collagen-based scaffolds and hydrogel-based scaffolds. In 2023, among these two biological scaffolds, the hydrogel-based scaffolds accounts for the significant share in cardiac tissue engineering market. This is due to their versatile properties that closely mimic natural tissue characteristics. Hydrogels are composed of highly hydrated networks, like the extracellular matrix, which promotes cell attachment, proliferation, and differentiation critical for tissue regeneration. Their mechanical properties can be tailored across a wide range to match those of specific tissues, enhancing compatibility and integration within the body. This tunability allows for the design of scaffolds with optimal porosity, biodegradability, and permeability, facilitating nutrient and oxygen diffusion essential for cell survival and tissue development. Moreover, hydrogels can be engineered to deliver bioactive molecules and growth factors in a controlled manner, further supporting tissue regeneration processes. Compared to collagen-based scaffolds, which also offer biological compatibility but have more limited mechanical tunability, hydrogels provide a superior platform for creating complex tissue constructs in cardiac tissue engineering and other regenerative medicine applications. These advantages position hydrogel-based scaffolds as the preferred choice, driving their dominance in the biological scaffold segment of the scaffold market.
The segment is separated into scaffolds and stem cells based on the type of material. The material used on scaffolds is subdivided into two categories: biological scaffolds and synthetic scaffolds. Collagen- and hydrogel-based scaffolds are two further categories into which the biological scaffolds are divided. By 2023, the hydrogel-based biological scaffolds will have a larger market share in cardiac tissue engineering than the other two biological scaffolds combined. This is because of its adaptable qualities, which closely resemble those of natural tissue. Similar to the extracellular matrix, hydrogels are made of highly hydrated networks that support cell adhesion, proliferation, and differentiation-all of which are essential for tissue regeneration. Their ability to modify their mechanical characteristics to a large degree in order to match the characteristics of particular tissues improves their compatibility and integration with the body. dominance in the scaffold market's biological scaffold sector. Because of its tunability, scaffolds with the ideal porosity, biodegradability, and permeability may be designed, enabling the flow of nutrients and oxygen-both of which are necessary for tissue formation and cell survival. Hydrogels can also be designed to supply growth factors and bioactive compounds in a regulated way, which will aid in the processes involved in tissue regeneration. For the creation of complex tissue constructs in cardiac tissue engineering and other regenerative medicine applications, hydrogels offer a superior platform than collagen-based scaffolds, which likewise offer biological compatibility but have less mechanical tunability. Because of these benefits, hydrogel-based scaffolds are positioned as the best option and dominate the market for biological scaffolds.
"Congenital heart disease treatment segment accounted for the significant share in the cardiac tissue engineering market during the forecast period."
Based on application, the cardiac tissue engineering market is segmented into myocardial infarction, heart valve repair/replacement, congenital heart disease treatment and others. Among these in 2023, the congenital heart disease treatment accounted for significant share. This is attributed to the rising prevalence and critical medical needs associated with congenital heart defects globally. For instance, in Australia, approximately 65,000 individuals live with congenital heart disease, with around 5,900 cases diagnosed annually as the principal cause. This condition also accounts for 79 infant deaths annually, highlighting its severe impact on public health. Similarly, in the United States, nearly 40,000 infants are born with congenital heart defects each year, underscoring the substantial patient population requiring advanced treatment options. Cardiac tissue engineering offers promising solutions for congenital heart defects by providing tailored approaches to repair or replace defective heart tissues. These innovations are crucial in addressing the specific anatomical and physiological challenges presented by congenital heart diseases, which often require personalized and durable interventions from early infancy throughout adulthood. The increasing incidence of congenital heart defects globally drives demand for innovative therapies that can improve patient outcomes and quality of life, thereby bolstering the congenital heart disease segment's prominence in the cardiac tissue engineering market.
The cardiac tissue engineering market is divided into segments based on application, comprising treatment for congenital heart disease, myocardial infarction, and heart valve repair/replacement. Treatment for congenital cardiac disease accounted for a sizable portion of these in 2023. This is explained by the increased global prevalence of congenital cardiac abnormalities and the urgent medical needs they provide. For example, congenital heart disease affects about 65,000 people in Australia, with 5,900 new instances being diagnosed as the primary cause each year. Its devastating influence on public health is further evidenced by the 79 newborn fatalities that are attributed to this illness each year. Comparably, over 40,000 babies in the US are born with congenital cardiac abnormalities every year, highlighting the sizeable patient population in need of cutting-edge care. Cardiac tissue engineering provides customized methods for replacing or repairing damaged cardiac tissues, which presents promising remedies for congenital heart abnormalities. These advancements are essential for tackling the unique anatomical and physiological problems associated with congenital cardiac disorders, which frequently call for customized and long-lasting therapies from early childhood into adulthood. The need for novel treatments that can enhance patient outcomes and quality of life is being driven by the rising incidence of congenital heart problems worldwide. This is expected to increase the importance of the congenital heart disease segment in the cardiac tissue engineering market.
"APAC is estimated to register the highest CAGR during the forecast period."
In this report, the cardiac tissue engineering market is segmented into five major regional segments, namely, North America, Europe, Asia Pacific, Latin America and Middle East and Africa. The market in APAC is projected to register the highest growth rate during the forecast period attributed to increase in strategic collaborations and robust research initiatives. In June 2023, the establishment of the Asia-Pacific Cardiovascular Disease Alliance (APAC CVD Alliance), involving patient organizations, allied health professionals, academia, corporate partners, and a global health think-tank, underscored a concerted effort across nine health systems in Asia to enhance heart health and mitigate cardiovascular disease (CVD) impacts. Moreover, the presence of esteemed research institutions such as the Heart Research Institute, dedicated to advancing cardiovascular disease pathophysiology and pioneering tissue engineering solutions, enhances the region's capability to innovate in cardiac health technologies. With such collaborative frameworks and research capabilities, the Asia Pacific region is accelerating in scientific advancements for market growth in cardiac tissue engineering, promising significant opportunities for stakeholders in the sector.
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North America, Europe, Asia Pacific, Latin America, and the Middle East and Africa are the five main geographical regions into which the cardiac tissue engineering market is divided in the report. Due to a rise in strategic partnerships and active research projects, the APAC market is anticipated to grow at the fastest rate over the forecast period. The Asia-Pacific Cardiovascular Disease Alliance (APAC CVD Alliance) was founded in June 2023 and represents a coordinated effort across nine Asian health systems to improve heart health and lessen the effects of cardiovascular disease (CVD). Participants in the alliance include patient organizations, allied health professionals, academia, corporate partners, and a global health think-tank. Furthermore, the region's capacity to innovate in heart health technologies is further enhanced by the existence of prestigious research organizations like the Heart Research Institute, which is committed to studying the pathophysiology of cardiovascular illness and developing innovative tissue engineering treatments. The Asia Pacific area is experiencing a notable surge in scientific developments for cardiac tissue engineering market growth, thanks to the presence of collaborative frameworks and research capacities. This presents substantial prospects for industry stakeholders.
List of Companies Profiled in the Report
Research Coverage
This report studies the cardiac tissue engineering market based on product, procedure, technology, application, end user and region. The report also analyses factors (such as drivers, restraints, opportunities and challenges) affecting market growth. It evaluates the opportunities and challenges in the market for stakeholders and provides details of the competitive landscape for market leaders. The report also studies micro markets with respect to their growth trends, prospects, and contributions to the total cardiac tissue engineering market. The report forecasts the revenue of the market segments with respect to five major regions.
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