Synonym |
α-Casein (90-96%) |
Species |
Bovine |
Protein Accession |
P02662 |
Purity |
90-96% |
Endotoxin Level |
< 1 EU/μg |
Biological Activity |
Not specified |
Expression System |
Mammary gland |
Fusion Tag |
None |
Predicted Molecular Mass |
23.1 kDa |
Formulation |
Lyophilized powder |
Reconstitution |
Reconstitute in water to a concentration of 1 mg/ml |
Storage & Stability |
Store at -20°C. For long term storage, store at -80°C. |
FAQ
What is α-Casein (90-96) and how is it used in scientific research?
α-Casein (90-96) is a
specific peptide derived from the α-casein protein, which itself is one of the primary proteins found in
mammalian milk, particularly that of cows. This specific fragment, consisting of amino acids 90 to 96 of
the α-casein sequence, is of great interest in scientific research due to its bioactive properties.
Researchers are particularly fascinated by its potential applications in immunology, cell signaling, and
the development of nutritional supplements. This peptide has been studied for its role in immune system
modulation, which could have significant implications for developing treatments for autoimmune diseases
and allergies.
In the lab, researchers often use α-casein (90-96) to investigate the mechanisms
through which casein proteins interact with various biomolecules and receptors within the body. Such
studies can provide critical insights into how dietary proteins influence physiological and pathological
processes. For instance, by observing how this peptide fragment affects the growth and differentiation
of cells, scientists can identify potential pathways it may regulate, which is crucial in the context of
cancer research or inflammatory diseases.
Moreover, α-casein peptides like the 90-96 sequence are
sometimes used as a model to study protein interactions and protein structure. Understanding the
structural dynamics of this peptide can lead to insights into the stability and function of larger
protein complexes. Researchers employ various analytical techniques such as nuclear magnetic resonance
(NMR) spectroscopy and X-ray crystallography to explore the structural properties of α-casein (90-96).
These studies form the basis for designing novel therapeutic agents or nutritional supplements aimed at
enhancing health outcomes.
Another significant area of use is in the examination of its potential
antioxidative properties. There’s ongoing research into how α-casein fragments may help neutralize free
radicals and mitigate oxidative stress, which is a critical factor in aging and the development of
chronic conditions such as cardiovascular diseases. In summary, α-casein (90-96) serves as a versatile
tool in scientific research, offering insights into a wide array of biological phenomena and potential
therapeutic applications.
What are the potential health benefits of α-Casein (90-96)?
The
potential health benefits of α-Casein (90-96) emanate from its bioactive properties, which have piqued
the interest of researchers who explore its various physiological effects. One of the remarkable
benefits lies in its potential role in modulating the immune system. Studies suggest that this peptide
fragment may have immunomodulatory effects, which can be crucial in developing therapeutic interventions
for autoimmune disorders and managing chronic inflammatory conditions. By regulating immune responses,
α-Casein (90-96) could help in balancing the body's defense mechanisms, reducing the risk of overactive
immune responses that lead to tissue damage and disease.
Another interesting frontier is its
potential in cardiovascular health. Some research indicates that peptides derived from casein proteins
might help in lowering blood pressure and enhancing lipid metabolism. α-Casein (90-96) could influence
the production of vasoactive compounds, which in turn can promote vascular health by enhancing blood
flow and reducing hypertension, a major risk factor for heart disease and stroke.
Furthermore,
α-Casein (90-96) may play a role in gut health. The digestive tract is home to a vast array of
beneficial bacteria, and maintaining a healthy gut microbiome is critical for overall wellness. Proteins
and peptides from dairy sources are known to have prebiotic effects, promoting the growth of beneficial
bacteria. Although specific studies focusing on α-Casein (90-96) are limited, its origin from dairy
suggests it might exhibit similar properties beneficial to gut microbiota.
Researchers are also
exploring the potential antioxidant properties of α-Casein (90-96). Oxidative stress is a contributing
factor to aging and various chronic diseases, including cancer and neurodegenerative disorders.
Antioxidants help neutralize free radicals, preventing cellular damage and promoting longevity.
Preliminary studies suggest that peptides like α-Casein (90-96) might possess antioxidant activity,
though further research is necessary to fully comprehend its efficacy and mechanisms of
action.
Lastly, α-Casein (90-96) might be beneficial in specific nutritional formulations
designed to support muscle growth and recovery. As a product derived from casein, a slow-digesting
protein, it may aid in providing a sustained release of amino acids, which are essential for muscle
repair and growth, particularly after exercise or during periods of increased metabolic demand. In
conclusion, while α-Casein (90-96) shows promise in several health domains, further extensive human
studies are required to fully validate these potential benefits.
How does α-Casein (90-96)
contribute to protein supplement formulations?
The inclusion of α-Casein (90-96) in protein
supplement formulations represents an exciting development in nutritional science, aimed at optimizing
the benefits of protein intake. By integrating this specific peptide fragment into supplements,
manufacturers aim to leverage its unique bioactive properties to enhance the nutritional and functional
profiles of their products. Here's how α-Casein (90-96) contributes to protein supplement
formulations:
For one, α-Casein (90-96) is derived from α-casein, a slow-digesting protein known
for its sustained release of amino acids. This characteristic makes it particularly beneficial for those
seeking to maintain a steady supply of amino acids over an extended period, such as during prolonged
periods of fasting or between meals. This sustained amino acid availability can be advantageous for
muscle protein synthesis, minimizing muscle breakdown, and supporting muscle recovery in athletes and
active individuals.
Moreover, the inclusion of α-Casein (90-96) in protein supplements is aimed
at exploiting its potential health-promoting properties, such as its antioxidative and immunomodulatory
effects. Antioxidants play a crucial role in neutralizing free radicals, which can cause oxidative
stress and damage to cells. By incorporating a component with potential antioxidant properties like
α-Casein (90-96), supplements may offer added protection against oxidative stress, supporting overall
health and wellness.
Similarly, its potential immune-supportive functions can make protein
supplements more attractive, especially for populations at risk of immune suppression or those exposed
to stressors that challenge immune function. For instance, the elderly or individuals undergoing intense
physical training campaigns could benefit from such added functionalities in their protein
source.
Furthermore, α-Casein (90-96) can add value by addressing issues related to digestion and
gut health. The peptide may have prebiotic-like effects, supporting the growth of beneficial gut
bacteria, which is critical for overall digestive health and nutrient absorption. In turn, a healthy gut
can enhance the absorption of nutrients provided by the supplement, effectively making the delivered
nutrition more efficient.
Finally, leveraging the potential health benefits of α-Casein (90-96)
in protein supplements could serve as a marketing point, providing a differentiator in a crowded market
of protein supplements. Consumers increasingly look for products that offer more than just basic
nutrition, seeking supplements that align with their health and wellness goals. By highlighting the
holistic benefits of α-Casein (90-96), manufacturers can appeal to health-conscious individuals seeking
comprehensive nutrition solutions. In summary, α-Casein (90-96) enhances protein supplements by
providing sustained amino acid delivery, potential health benefits, and marketing advantages,
contributing to more effective and appealing products.
How is α-Casein (90-96) relevant in the
context of food allergy research?
The relevance of α-Casein (90-96) in food allergy research
primarily centers around its origin as a milk-derived peptide and its immunomodulatory properties. Food
allergies, particularly to proteins found in milk, are a major area of concern worldwide, affecting
millions of individuals and often resulting in significant dietary restrictions and health risks.
Understanding the specific components within milk that trigger allergic reactions is crucial for
developing strategies to manage or prevent these allergies.
α-Casein, the parent protein from
which α-Casein (90-96) is derived, is one of the major proteins in cow's milk known to cause allergic
reactions in susceptible individuals. Research into specific fragments like α-Casein (90-96) is pivotal
for dissecting the particular sequences and structures responsible for eliciting immune responses. By
characterizing the immunological properties of α-Casein (90-96), scientists aim to understand whether
this fragment contributes to allergenicity and how it interacts with the immune system.
What
makes α-Casein (90-96) especially interesting is the possibility that it may have dual roles—while it
might be part of an allergenic protein, its derived peptides could also possess properties that modulate
immune function. This potential to fine-tune immune responses holds promise for innovative therapeutic
approaches that could desensitize individuals to milk allergens or modulate allergic
responses.
Moreover, deepening our understanding of how peptides like α-Casein (90-96) interact
with the immune system can lead to novel diagnostic tools or treatments for milk allergies. For
instance, therapies that involve introducing specific peptides to the immune system, a concept known as
peptide immunotherapy, are gaining attention. Such approaches aim to gradually retrain the immune system
to tolerate allergens, and insights from α-Casein (90-96) research could be instrumental in informing
the design of these therapies.
Additionally, in the realm of food allergy research, identifying
peptides with distinct immunological footprints like α-Casein (90-96) can help refine food labeling and
allergen warnings, contributing to better consumer safety and management of food allergies. As
researchers continue to untangle the complex interactions between dietary proteins and immune responses,
α-Casein (90-96) stands out as a significant piece of the puzzle, offering insights that may lead to
improved management and understanding of milk allergies.
What kind of laboratory studies have
been conducted on α-Casein (90-96)?
Laboratory studies focusing on α-Casein (90-96) typically aim
to explore its structural, functional, and bioactive properties. As a specific peptide fragment derived
from α-casein, this sequence has garnered attention in various fields of research, from nutrition to
immunology, due to its potential physiological effects and applications.
One of the primary areas
of laboratory research involves structural analysis. Scientists employ techniques like nuclear magnetic
resonance (NMR) and X-ray crystallography to determine the three-dimensional conformation of α-Casein
(90-96). Understanding its structural properties is crucial as it provides insights into how this
peptide might interact with biological targets. For instance, its shape and charge distribution can
determine binding affinity to different receptors or its ability to form complexes, which can be
fundamental in contexts such as nutrient absorption or immune response modulation.
Functional
assays are another common avenue of study. Researchers use in vitro (test tube) experiments to
investigate how α-Casein (90-96) interacts with cells and proteins in a controlled environment. Such
studies might include assessing the peptide's effect on immune cell activation, cytokine production, or
cellular growth and differentiation. Through these experiments, scientists aim to delineate the pathways
through which α-Casein (90-96) might exert biological effects, potentially paving the way for
therapeutic applications.
Additionally, laboratory studies have looked at the antioxidative
potential of α-Casein (90-96). Given the increasing interest in antioxidants' role in health,
researchers are keen to evaluate whether this peptide can neutralize free radicals or reduce oxidative
stress in cell models. The outcomes of these studies could have implications for the development of
nutritional supplements or functional foods incorporating α-Casein (90-96) for enhanced health
benefits.
Furthermore, in the quest to alleviate or better manage food allergies, studies often
focus on how peptides like α-Casein (90-96) can affect allergic responses. For instance, assessing the
interaction of this peptide with immune components in allergic models may offer clues on whether it
serves as part of the allergenic trigger or if it potentially aids in reducing the allergenic response.
Overall, laboratory studies of α-Casein (90-96) are multifaceted, ranging from molecular and
structural analyses to functional and immunological assays. These investigations help build a
comprehensive understanding of the peptide, providing a basis for potential applications in health,
nutrition, and disease management.