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市场调查报告书
商品编码
1383341
到 2030 年自动并行胜胜肽合成仪的市场预测:按类型、应用和区域分類的全球分析Automatic Parallel Peptide Synthesiser Market Forecasts to 2030 - Global Analysis By Type (Fully-Automatic and Semi-Automatic), Application and By Geography |
根据 Stratistics MRC 的数据,2023 年全球自动化胜肽合成仪市场规模为 6.01 亿美元,预计在预测期内年复合成长率为 9.4%,到 2030 年将达到 11.27 亿美元。
自动并行胜胜肽合成仪是生物学和化学领域用于自动合成胜胜肽的专用工具。蛋白质主要由胜肽组成,胜肽是胺基酸的短链。胜肽合成仪是科学家和研究人员用来产生精确胺基酸序列的工具,用于药物开发、蛋白质研究、生化研究等。某些合成器还可能具有整合的胜胜肽精製和分析功能,例如质谱和高效液相层析(HPLC)。
由胜肽和蛋白质製成的药物称为“胜肽疗法”,包括胜肽药物和生技药品。胜肽药物由于具有比传统小分子药物低毒性和更高特异性的特殊优势,在生物技术和製药领域越来越受欢迎。高标靶特异性是胜肽疗法的一个众所周知的特征,因此它们可以被设计为作用于特定的蛋白质、细胞或受体。此外,随着对更个体化和加护治疗的需求的增加,越来越需要由自动并行胜胜肽合成仪生产的客製化设计的胜肽。
对高素质劳动力的需求可能会让新兴企业、小型研究机构和资金有限的公司难以起步。此外,还需要花费大量的时间和金钱来培训人力资源来操作自动合成仪并进行胜肽合成。当关键人员离开或无法使用时,严重依赖技术纯熟劳工的企业可能会遇到困难,而依赖少数人可能会带来危险或扰乱业务,市场成长将受到阻碍。
个人化医疗的目标是根据患者独特的遗传和分子特征进行治疗。有可能创造出专门特异性与患者疾病相关的基因突变和生物标记并与之相互作用的胜肽。透过自动平行胜肽合成仪可以快速有效地合成患者特异性胜胜肽。透过客製化胜胜肽,我们可以针对每个人疾病的遗传和生化特征做出反应。基因组学和 DNA 测序新兴市场的开拓使得检测与疾病相关的特定遗传变异和突变成为可能,从而使自动胜肽能够产生精确靶向这些遗传标记的胜肽。市场。
较旧的合成器可能不具有与较新版本相同的特性、功能或效率。由于消费者被最新的创新所吸引并且不再投资过时的机器,老式合成器的製造商可能面临较少的竞争。新一代合成器配件和软体可能无法与早期型号配合使用,这限制了您利用最新功能并将您的仪器与其他实验室系统和设备连接的能力。
这场流行病加速了对抗病毒胜肽的寻找,这对于创造治疗方法和疫苗接种至关重要。因此,需要胜肽合成仪来生产抗病毒胜胜肽。 COVID-19 疫苗的快速发展推动了对这种胜肽合成仪的需求,其中一些疫苗的配方中含有胜肽。对远端工作和社会隔离的需求促使组织探索设备的自动化和远端监控,特别是胜肽合成器。此外,政府加大了对 COVID-19 相关的疫苗生产和研究的支持,使得购买胜肽合成器成为可能。
全自动部分预计将有良好的成长,因为这些胜肽合成步骤可以在全自动合成仪上同时处理,从而实现高通量胜胜肽生产。这些合成仪确保了胜肽的合成,因为可以精确控制温度、时间和试剂浓度等反应参数。另外,高效液相层析(HPLC)和质谱是某些全自动合成仪提供的两种整合精製和分析能力,可以快速生产纯胜胜肽并扩大市场。我会支持你。
医疗级自动平行胜肽合成仪是为满足医疗和医疗产业的特定要求而设计的专用工具,因此,医疗领域预计在预测期内将呈现最高的年复合成长率。这些合成器的主要应用是自动合成医学重要的胜肽,例如用于药物开发、诊断测试和治疗应用的胜肽。在医学研究中,基于胜肽的疫苗接种用于诱导免疫反应。这些疫苗的胜肽成分必须使用自动合成仪自动合成。
由于生物技术、製药和生命科学领域的研发活动大幅增加,预计亚太地区在预测期内将占据最大的市场占有率。这些研究很大程度上依赖胜肽合成,从而推动了对自动化平行胜胜肽合成器的需求。由于基因组学、蛋白质组学和定制医学等生物技术的进步,对胜肽合成器的需求越来越大,这些进步被用于生物标记识别、诊断分析的创建和个体化胜肽治疗。
由于药品研发集中在欧洲,预计欧洲在预测期内的年复合成长率最高。该地区积极参与多项药物研究和药物研发发现计划,包括生技药品和胜肽药物的合成。许多提供客製化胜胜肽合成服务的公司都位于欧洲。此外,其他地区的製药公司与欧洲研究机构之间的合作日益增多,也增加了对先进胜胜肽合成设备的需求。
According to Stratistics MRC, the Global Automatic Parallel Peptide Synthesiser Market is accounted for $601 million in 2023 and is expected to reach $1127 million by 2030 growing at a CAGR of 9.4% during the forecast period. A specialized tool used in biology and chemistry for the automated synthesis of peptides is an automatic parallel peptide synthesizer. Proteins are mostly made up of peptides, which are short chains of amino acids. Peptide synthesizers are tools used by scientists and researchers to manufacture precise amino acid sequences for use in medication development, protein studies, and biochemical research, among other uses. Certain synthesizers may be equipped with integrated peptide purification and analysis functions, such as mass spectrometry or high-performance liquid chromatography (HPLC).
Pharmaceuticals made from peptides or proteins are referred to as "peptide-based therapeutics," which also includes peptide medications and biologics. They are becoming more and more well-known in the biotechnology and pharmaceutical sectors because of their special benefits, which include reduced toxicity and higher specificity than conventional small molecule medications. High target specificity is a well-known characteristic of peptide-based therapies thus they may be engineered to engage with particular proteins, cells, or receptors. Moreover, custom-designed peptides produced by automated parallel peptide synthesizers are becoming more and more necessary as the need for more individualized and focused therapies rises.
The requirement for a highly qualified labor may make it difficult for startups, smaller research institutions, and enterprises with tight funds to get started. These organizations can find it difficult to draw in and keep people with the right kind of experience and it can take a lot of time and money to train people to operate automated synthesizers and perform peptide synthesis. Businesses that depend significantly on skilled workers may experience difficulties if important individuals depart or are unavailable where reliance on a small number of people might result in dangers and interruptions to operations thereby hindering the growth of the market.
Treating patients according to their unique genetic and molecular profiles is the goal of personalized medicine. It is possible to create peptides that specifically target and interact with genetic variants or biomarkers linked to a patient's illness. Rapid and effective synthesis of peptides tailored to a patient is made possible by automatic parallel peptide synthesizers. The distinct genetic and biochemical features of each person's illness can be catered for by customizing these peptides. It is now feasible to detect certain genetic variants and mutations linked to illnesses because to developments in genomics and DNA sequencing thus peptides that precisely target these genetic markers can be created using automatic peptide synthesizers which propels the market growth.
Older synthesizers might not have the same features, functionalities, or efficiency as more recent versions. Manufacturers of older synthesizers may face less competition as a result of consumers who are drawn to the newest innovations and may be discouraged from investing in antiquated machinery. It's possible that accessories and software from more recent generations of synthesizers won't work with earlier models, which would restrict capacity to utilize the newest features and link your equipment with other lab systems and instruments.
Research into antiviral peptides, which are essential for creating cures and vaccinations, was expedited by the epidemic. The need for peptide synthesizers to produce antiviral peptides arose as a result thus the need for peptide synthesis equipment was fueled by the COVID-19 vaccines' quick development, several of which contain peptides in their formulations. Organizations are investigating automation and remote monitoring of equipment, particularly peptide synthesizers, due to the necessity for distant work and social isolation. Moreover, increasing government support for vaccine production and research connected to COVID-19 made it possible to purchase peptide synthesizers.
The fully-automatic segment is estimated to have a lucrative growth, as these peptide synthesis processes may be handled concurrently by fully-automatic synthesizers, allowing for high-throughput peptide manufacturing. Peptide synthesis is guaranteed by these synthesizers because they provide exact control over reaction parameters like temperature, duration, and reagent concentrations. Furthermore high-performance liquid chromatography (HPLC) and mass spectrometry are two integrated purification and analysis features that certain fully-automatic synthesizers offer, making it possible to produce pure peptides quickly thus encouraging in the market expansion.
The medical segment is anticipated to witness the highest CAGR growth during the forecast period, because the medical-grade automatic parallel peptide synthesizers are specialist tools made to meet the specific requirements of the healthcare and medical industries. The automated synthesis of peptides of medical significance, such as those employed in medication development, diagnostic tests, and therapeutic applications, is the main usage for these synthesizers. Medical research use vaccinations based on peptides to elicit immune responses. The peptide components of these vaccines must be synthesized automatically using automatic synthesizers.
Asia Pacific is projected to hold the largest market share during the forecast period owing to the biotechnology, pharmaceutical, and life sciences sectors which are seeing a significant increase in research and development activity in the Asia-Pacific area. These studies heavily rely on peptide synthesis, which fuels the need for automated parallel peptide synthesizers. Peptide synthesizers are becoming more and more in demand because to advancements in biotechnology such as genomics, proteomics, and customized medicine, these advancements are being used to biomarker identification, the creation of diagnostic assays, and individualized peptide therapeutics.
Europe is projected to have the highest CAGR over the forecast period, owing to Research & development for pharmaceuticals which are concentrated in Europe. The area is actively involved in several drug research and discovery initiatives, many of which entail the synthesis of biologics and peptide-based medications. Numerous businesses offering bespoke peptide synthesis services are based in Europe. Additionally, due to the increasing number of collaborations between pharmaceutical corporations from other areas and European research institutes is driving up the demand for sophisticated equipment for peptide synthesis.
Some of the key players profiled in the Automatic Parallel Peptide Synthesiser Market include: Activotec, MultiSynTech GmbH, CEM GmbH, Biotage, AAPPTEC, PolyPeptide Group, CreoSalus, AnproTech Inc., Telegenixx, Almac Group and Next Pharma Inc.
In June 2023, Biotage completes the acquisition of Astrea Bioseparations and resolves on a share issue to the Sellers as part of the acquisition. The acquisition also includes the shares held by certain minority investors in the Astrea group.
In March 2021, Activotec collaborated with Coronex to develop a game-changing platform for lateral flow (LF) tests that could be vital in the fight against COVID-19. This proprietary platform technology has been used to develop highly optimised LF tests for SARS-Cov-2 antibodies.
In February 2021, MultiSynTech GmbH and Biotage AB join forces and enter the peptide synthesis business. The agreements with MultiSynTech will grant Biotage distribution rights for all current MultiSynTech peptide synthesis systems.