Clostridium tepidum

General Information

Clostridium tepidum is a fascinating microorganism primarily due to its unique metabolic capabilities and environmental adaptations. This bacterium is known for its ability to thrive in moderately thermophilic conditions, typically found in environments with temperatures ranging from 45 to 60 degrees Celsius. One of the most intriguing aspects of C. tepidum is its role in the sulfur cycle. It is capable of reducing sulfur compounds, which makes it an important player in the biogeochemical cycling of sulfur in its native habitats, such as hot springs and geothermal soils. Additionally, C. tepidum has garnered interest for its potential applications in biotechnology. Its enzymes, which are adapted to function optimally at higher temperatures, are of particular interest for industrial processes that require robust and heat-stable biocatalysts. The study of C. tepidum also provides insights into the evolutionary adaptations of thermophilic organisms, contributing to our understanding of how life can persist and thrive in extreme environments. Another notable feature of C. tepidum is its ability to form endospores, which allows it to survive in harsh conditions when nutrients are scarce. This survival strategy is a key area of research, as it offers clues about microbial resilience and the mechanisms underlying dormancy and reactivation. In summary, Clostridium tepidum is a microorganism of significant interest due to its thermophilic nature, role in the sulfur cycle, potential biotechnological applications, and survival strategies. Its study not only enhances our understanding of microbial ecology and evolution but also opens up possibilities for innovative industrial applications.

Clostridium tepidum is a fascinating anaerobic bacterium that thrives in high-temperature environments, particularly in hot springs and geothermal areas. This organism is notable for its ability to perform thermophilic fermentation, which allows it to metabolize a variety of substrates at elevated temperatures, making it a subject of interest for researchers studying extremophiles and their applications in biotechnology. One of the most intriguing aspects of C. tepidum is its capacity to utilize cellulose and other complex carbohydrates as carbon sources. This characteristic positions it as a potential candidate for biofuel production, as it could be harnessed to convert plant biomass into fermentable sugars, thereby contributing to sustainable energy solutions. Additionally, C. tepidum is known for its unique metabolic pathways, including the production of hydrogen gas during fermentation. This feature not only has implications for bioenergy but also for understanding the global carbon cycle, as hydrogen production can influence the dynamics of microbial communities in natural environments. The organism's ability to survive and thrive in extreme conditions also makes it a valuable model for studying the mechanisms of stress resistance and adaptation in microorganisms. Research on C. tepidum can provide insights into the evolutionary processes that enable life to persist in harsh environments, which is crucial for both ecological studies and the development of industrial applications. In summary, Clostridium tepidum stands out due to its thermophilic nature, ability to ferment complex carbohydrates, and production of hydrogen gas, making it a significant organism for both environmental and industrial research.

Taxonomy

Superkingdom: Bacteria

Phylum: Bacillota

Class: Clostridia

Order: Eubacteriales

Family: Clostridiaceae

Genus: Clostridium

Species: Clostridium tepidum

NCBI ID

1962263

Genome Info

FTP Path:
ftp.ncbi.nlm.nih.gov/genomes/all/GCA/015/667/975/GCA_015667975.1_ASM1566797v1

File for sequence-based predictions:
GCA_015667975.1_ASM1566797v1_genomic.fasta

Descriptions

Clinical Implications and Relevance

Source: gpt-4o-mini-2024-07-18

The microorganism Clostridium tepidum is a member of the Clostridia class, known for its role in various ecological and clinical contexts. While it is primarily recognized for its presence in thermophilic environments, its clinical implications are less well-documented compared to other Clostridium species. However, it is important to note that members of the Clostridium genus are often associated with infections and can exhibit pathogenicity under certain conditions. In the context of human health, C. tepidum has been studied for its potential role in the gut microbiome, where it may contribute to metabolic processes and nutrient absorption. Its interactions with the human body are not fully understood, but it is hypothesized that it may influence the immune response through its metabolic byproducts. One of the significant concerns with Clostridium species is their potential for antimicrobial resistance. While specific resistance mechanisms for C. tepidum are not extensively characterized, the genus is known for harboring genes that confer resistance to various antibiotics, which poses challenges in clinical settings. Currently, there are no widely recognized medical applications, such as probiotics or vaccines, specifically involving C. tepidum. However, ongoing research into the Clostridium genus may reveal more about its potential benefits or risks in human health. Overall, while C. tepidum is not a primary pathogen, its presence in the microbiome and potential interactions with human health warrant further investigation.

Habitat and Ecological Niches

Source: gpt-4o-mini-2024-07-18

Clostridium tepidum is a thermophilic, anaerobic bacterium commonly found in hot springs and geothermal environments. This microorganism thrives in environments with elevated temperatures, typically ranging from 50°C to 75°C, where it plays a crucial role in the decomposition of organic matter. Its ability to ferment a variety of substrates allows it to contribute significantly to the nutrient cycling within these ecosystems. Hot Springs are particularly notable habitats for Clostridium tepidum, where it can be found in the microbial mats that form in the warm, mineral-rich waters. Here, it interacts with other microorganisms, including archaea and other bacteria, forming complex biofilms that enhance nutrient availability and energy flow within the ecosystem. This symbiotic relationship is essential for maintaining the stability and productivity of these unique environments. In addition to its role in organic matter decomposition, Clostridium tepidum is also involved in sulfur cycling, as it can reduce sulfate to sulfide, contributing to the geochemical processes that shape the chemistry of hot spring waters. Its metabolic activities not only support its own survival but also influence the overall microbial community structure and function in these extreme habitats. Overall, Clostridium tepidum exemplifies the intricate relationships and adaptations that microorganisms have developed to thrive in extreme thermal environments, showcasing the importance of microbial life in maintaining ecological balance and nutrient cycling in such biomes.

Industrial Application

Source: gpt-4o-mini-2024-07-18

The microorganism Clostridium tepidum has shown significant potential in various industrial applications, particularly in the fields of biotechnology, waste management, and biofuel production. This anaerobic bacterium is known for its ability to perform fermentation, which is a crucial process in the production of biofuels such as ethanol and butanol. By utilizing organic substrates, Clostridium tepidum can convert biomass into valuable biofuels, making it an important player in the shift towards renewable energy sources. In the realm of waste management, Clostridium tepidum is involved in the biodegradation of organic waste materials. Its metabolic pathways allow it to break down complex organic compounds, thereby contributing to the treatment of wastewater and the reduction of environmental pollutants. This capability is particularly beneficial in anaerobic digestion processes, where the bacterium helps in the stabilization of organic waste and the production of biogas. Furthermore, Clostridium tepidum has been studied for its potential in pharmaceutical development. The organism's unique enzymatic activities can be harnessed for the production of specific metabolites that may have therapeutic applications. For instance, its ability to produce certain enzymes can be utilized in the synthesis of pharmaceuticals, enhancing the efficiency of drug production processes. Overall, the diverse capabilities of Clostridium tepidum in fermentation, biodegradation, and enzyme production highlight its importance in various industrial sectors, paving the way for innovative solutions in energy production, waste management, and healthcare.

Phenotypes and Predictions

The table shows the phenotypes and predictions. Cell colors indicate the class of the value. When literature-based data is available, a checkmark (✓) indicates a correct prediction, while an ✗ indicates an incorrect prediction.

Literature-based phenotypes: 9

LLM predicted phenotypes: 4

Phenotype	High-quality annotation	anthropic/claude-3-haiku:beta	meta-llama/llama-3-8b-instruct:nitro	google/gemini-flash-1.5	meta-llama/llama-3-70b-instruct:nitro	anthropic/claude-3.5-sonnet	perplexity/llama-3-sonar-small-32k-chat	openchat/openchat-7b	openai/gpt-4	openai/gpt-4	openai/gpt-4o	openai/gpt-4o	google/gemini-pro-1.5	google/gemini-pro-1.5	microsoft/phi-3-mini-128k-instruct	microsoft/phi-3-mini-128k-instruct	openai/gpt-3.5-turbo-0125	openai/gpt-3.5-turbo-0125	microsoft/wizardlm-2-8x22b	microsoft/wizardlm-2-8x22b	google/palm-2-chat-bison-32k	google/palm-2-chat-bison-32k	mistralai/mistral-7b-instruct	mistralai/mistral-7b-instruct	mistralai/mixtral-8x7b-instruct:nitro	mistralai/mixtral-8x7b-instruct:nitro	google/gemma-7b-it	google/gemma-7b-it
Motility	TRUE	true ✓	false ✗	false ✗	false ✗	true ✓	false ✗	false ✗	false ✗	false ✗	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	false ✗	false ✗	false ✗	false ✗	true ✓	true ✓	true ✓	true ✓
Gram staining	gram stain positive	gram stain positive ✓	gram stain positive ✓	gram stain positive ✓	gram stain positive ✓	gram stain positive ✓	gram stain positive ✓	gram stain positive ✓	N/A	gram stain positive ✓	N/A	gram stain positive ✓	N/A	gram stain positive ✓	N/A	gram stain variable ✗	N/A	gram stain positive ✓	N/A	gram stain positive ✓	N/A	gram stain positive ✓	N/A	gram stain variable ✗	N/A	gram stain negative ✗	N/A	gram stain negative ✗
Aerophilicity	anaerobic	N/A	anaerobic ✓	anaerobic ✓	anaerobic ✓	anaerobic ✓	N/A	N/A	anaerobic ✓	anaerobic ✓	anaerobic ✓	anaerobic ✓	anaerobic ✓	anaerobic ✓	N/A	N/A	anaerobic ✓	anaerobic ✓	anaerobic ✓	anaerobic ✓	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A
Extreme environment tolerance	FALSE	true ✗	true ✗	true ✗	true ✗	true ✗	true ✗	true ✗	false ✓	false ✓	true ✗	true ✗	true ✗	true ✗	true ✗	true ✗	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	true ✗	true ✗	false ✓	false ✓	true ✗	true ✗
Biofilm formation	N/A	true	true	true	true	true	true	true	false	false	false	false	false	false	true	true	true	true	true	true	true	true	true	true	true	true	true	true
Animal pathogenicity	TRUE	true ✓	false ✗	false ✗	false ✗	false ✗	true ✓	false ✗	false ✗	false ✗	false ✗	false ✗	false ✗	false ✗	true ✓	true ✓	false ✗	false ✗	false ✗	false ✗	true ✓	true ✓	false ✗	false ✗	false ✗	false ✗	false ✗	false ✗
Biosafety level	N/A	biosafety level 2	biosafety level 2	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 2	biosafety level 2	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 2	biosafety level 2	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 2	biosafety level 2	biosafety level 2	biosafety level 2	biosafety level 1	biosafety level 1	biosafety level 1	biosafety level 1
Health association	N/A	true	false	false	true	false	true	true	false	false	false	false	false	false	true	true	false	false	true	true	true	true	false	false	true	true	false	false
Host association	TRUE	true ✓	false ✗	false ✗	true ✓	false ✗	true ✓	true ✓	false ✗	false ✗	false ✗	false ✗	false ✗	false ✗	true ✓	true ✓	false ✗	false ✗	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	false ✗	false ✗
Plant pathogenicity	FALSE	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓	false ✓
Spore formation	TRUE	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	true ✓	false ✗	false ✗
Hemolysis	N/A	alpha	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	beta	beta	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A	N/A
Cell shape	bacillus	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	spirillum ✗	spirillum ✗	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓	bacillus ✓

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