Search results

What is the molecular weight/Mw of CX3CL1 RAT Protein?
CX3CL1 RAT Protein has a total Mw of 8.7kDa.

What is the source or expression system of CX3CL1 RAT Protein?
Escherichia Coli.

What is the Purity of CX3CL1 RAT Protein?
CX3CL1 RAT Protein is >97% pure as determined by SDS-PAGE.

What is the Biological Activity of CX3CL1 RAT Protein?
Determined by its ability to chemoattract human monocytes using a concentration range of 5.0-10.0 ng/ml, corresponding to a specific activity of 100,000-200,000units/mg.

What is the amino acid sequence of CX3CL1 RAT Protein?
QHLGMTKCNI TCHKMTSPIP VTLLIHYQLN QESCGKRAII LETRQHRHFC ADPKEKWVQD AMKHLDHQTA ALTRNG

What applications can CX3CL1 RAT Protein be used in?
CX3CL1 RAT Protein can probably be used in western blot, ELISA and Lateral Flow.

What is the endotoxin level for CX3CL1 RAT Protein?
The endotoxin level is minimal, CX3CL1 RAT Protein was purified using conventional chromatography techniques.

Who supplies recombinant CX3CL1 RAT that is in stock and available to order?
ProSpec has the protein in stock and available for immediate delivery.

Where can I order bulk mg quantities of CX3CL1 RAT?
ProSpec supplies bulk mg quantities at affordable prices that meets research and academic budgets.

Troponin I, encoded by the TNNI3 gene, is a critical component of the troponin complex in cardiac muscle cells. It plays a central role in the regulation of cardiac muscle contraction by modulating the interaction between actin and myosin filaments.

While extensive research has been conducted on troponin I in the context of cardiac diseases, there is a growing need to investigate native human troponin I (TNNI3) in its unmodified form to gain a deeper understanding of its functions, structural significance, and implications for heart health. This research aims to provide a comprehensive exploration of TNNI3 in its native state, shedding light on its various roles and potential applications in cardiology and biomedical research.

The primary objective of this research is to elucidate the physiological role of native human TNNI3 in cardiac muscle contraction. Experiments involving human cardiac tissue samples and isolated myocytes will be conducted to investigate how TNNI3 interacts with other components of the troponin complex and influences calcium-mediated muscle contraction. Understanding these mechanisms is fundamental for deciphering the complexities of cardiac muscle physiology and its implications for heart health.

The second objective is to assess the clinical relevance of native TNNI3 in cardiac diseases. Clinical studies involving patients with various cardiac conditions will be conducted to evaluate the diagnostic and prognostic value of TNNI3 as a biomarker. These investigations may provide valuable insights into the use of native TNNI3 in the early detection and management of heart diseases.

The third objective is to explore the potential applications of native TNNI3 in biomedical research and drug development. Research will investigate the use of native TNNI3-expressing cells as models for studying cardiac disorders and for developing novel therapeutic interventions targeting the troponin complex.

By delving into the functions and roles of native human TNNI3, this research aims to expand our knowledge of cardiac muscle physiology, its implications for cardiac diseases, and its potential applications in cardiology and biomedical research.

Bone Morphogenetic Protein-13 Human Recombinant: Unraveling its Potential in Tissue Engineering and Regenerative Medicine

Abstract:

Bone Morphogenetic Protein-13 (BMP-13) human recombinant is a pivotal member of the bone morphogenetic protein family, known for its crucial role in tissue development, regeneration, and repair. This research paper aims to provide a comprehensive analysis of BMP-13, including its characteristics, signaling pathways, and potential therapeutic applications. Furthermore, innovative methodologies for the production and optimization of BMP-13 human recombinant are proposed, shedding light on its future implications in the field of tissue engineering and regenerative medicine.

Introduction:

Tissue engineering and regenerative medicine hold great promise in addressing tissue repair and regeneration challenges. BMP-13, a prominent member of the BMP family, plays a vital role in orchestrating cellular responses during tissue development and healing. This paper explores the distinctive features of BMP-13 and presents novel approaches for the production and optimization of BMP-13 human recombinant, aiming to unlock its therapeutic potential in various regenerative contexts.

Characteristics and Signaling Pathways:

BMP-13 is a secreted growth factor belonging to the transforming growth factor-beta (TGF-β) superfamily. It exerts its biological effects by binding to specific cell surface receptors, initiating intricate intracellular signaling cascades. BMP-13 signaling pathways, including Smad-dependent and Smad-independent pathways, regulate critical processes such as cell differentiation, proliferation, and extracellular matrix synthesis, influencing tissue development and repair.

Production of BMP-13 Human Recombinant:

Efficient production methodologies are crucial for harnessing the therapeutic potential of BMP-13 human recombinant. Various recombinant protein expression systems, such as mammalian cells or baculovirus-insect cell systems, have been utilized for the production of functional BMP-13. Optimization strategies, including codon optimization, signal peptide engineering, and protein folding enhancement, have been employed to improve the yield and bioactivity of BMP-13 recombinant protein.

Potential Therapeutic Applications:

BMP-13 human recombinant holds immense promise in the field of tissue engineering and regenerative medicine. Its involvement in cartilage formation, osteogenesis, and tissue repair makes it a potential candidate for the treatment of musculoskeletal disorders, joint injuries, and cartilage defects. Furthermore, the ability of BMP-13 to modulate cell behavior and tissue remodeling indicates its wider therapeutic applications in diverse regenerative processes.

Conclusion:

BMP-13 human recombinant emerges as a crucial regulator in tissue engineering and regenerative medicine, offering significant potential for tissue repair and regeneration. Optimizing production methodologies and further unraveling its signaling mechanisms will undoubtedly enhance its therapeutic applications. Given its involvement in cartilage and bone formation, as well as tissue repair, BMP-13 human recombinant represents a valuable tool for promoting tissue regeneration and addressing the unmet clinical needs in regenerative medicine.

What is the molecular weight/Mw of GDF6 Protein?
GDF6 Protein has a total Mw of 27.1kDa.

What is the source or expression system of GDF6 Protein?
Escherichia Coli.

What is the Purity of GDF6 Protein?
GDF6 Protein is >95% pure as determined by SDS-PAGE.

What is the Biological Activity of GDF6 Protein?
The ED50 as determined by inducing alkaline phosphatase production of murine ATDC5 cells is less than 2.0µg/ml, corresponding to a specific activity of > 500IU/mg.

What is the amino acid sequence of GDF6 Protein?
TAFASRHGKR HGKKSRLRCS KKPLHVNFKE LGWDDWIIAP LEYEAYHCEG VCDFPLRSHL EPTNHAIIQT LMNSMDPGST PPSCCVPTKL TPISILYIDA GNNVVYKQYE DMVVESCGCR.

What applications can GDF6 Protein be used in?
GDF6 Protein can probably be used in western blot, ELISA and Lateral Flow.

What is the endotoxin level for GDF6 Protein?
The endotoxin level is minimal, GDF6 Protein was purified using conventional chromatography techniques.

The Physiological Implications and Therapeutic Potential of Activin A Receptor Type II-Like 1 Human Recombinant

1. Abstract

This research paper investigates the Activin A Receptor Type II-Like 1 Human Recombinant (ACVRL1), a significant protein involved in the TGF-beta superfamily signaling pathway. We provide an extensive understanding of ACVRL1’s structure, signaling mechanism, biological functions, and implications in disease pathology. Additionally, we explore the therapeutic potential of ACVRL1 in various pathological conditions.

2. Introduction

ACVRL1, also known as ALK1, plays an essential role in the TGF-beta signaling pathway, which has implications in cellular proliferation, differentiation, and apoptosis. Understanding ACVRL1 and its signaling mechanisms could provide insights into its potential therapeutic applications in various diseases.

3. Structure and Signaling of ACVRL1

ACVRL1 is a type I receptor protein involved in the TGF-beta signaling pathway. It is a transmembrane protein that consists of a ligand-binding extracellular domain and an intracellular domain responsible for signal transduction. Binding of ligands to ACVRL1 triggers phosphorylation events that activate downstream signaling pathways.

4. Biological Functions of ACVRL1

ACVRL1 plays pivotal roles in multiple biological processes, including vascular development, angiogenesis, and maintenance of vascular integrity. It is known to influence cellular processes such as proliferation, differentiation, and apoptosis, thereby implicating it in organogenesis and homeostasis.

5. ACVRL1 in Disease Pathology

Mutations in the ACVRL1 gene have been associated with hereditary hemorrhagic telangiectasia (HHT), a genetic disorder characterized by abnormal blood vessel formation. This link underscores the critical role of ACVRL1 in vascular biology and disease.

6. Therapeutic Potential of ACVRL1

Given its crucial role in vascular biology and its link to HHT, ACVRL1 presents a promising target for therapeutic interventions. Modulation of ACVRL1 signaling could potentially provide treatment options for pathological conditions related to abnormal blood vessel formation and function.

7. Conclusion and Future Perspectives

Our understanding of ACVRL1 and its functions has grown significantly in recent years, but there is much yet to be discovered. Continued research into ACVRL1's precise molecular mechanisms and its roles in disease will undoubtedly open new doors for therapeutic developmen

What is the molecular weight / Mw of ACVRL1 Protein?
ACVRL1 Protein has a total Mw of 11.5kDa.

What is the source or expression system of ACVRL1 Protein?
Sf9, Insect cells.

What is the Purity of ACVRL1 Protein?
ACVRL1 Protein is >95% pure as determined by SDS-PAGE.

What is the Biological Activity of ACVRL1 Protein?
The biological functionality of ACVRL1 Protein will be determined in the future.

What is the amino acid sequence of ACVRL1 Protein?
DPVKPSRGPL VTCTCESPHC KGPTCRGAWC TVVLVREEGR HPQEHRGCGN LHRELCRGRP TEFVNHYCCD SHLCNHNVSL VLEATQPPSEQPGTDGQHHH HHH.

What applications can ACVRL1 Protein be used in?
ACVRL1 Protein can probably be used in western blot, ELISA and Lateral Flow.

What is the endotoxin level for ACVRL1 Protein?
The endotoxin level is minimal, ACVRL1 Protein was purified using conventional chromatography techniques.

The soluble receptor for advanced glycation end products, sRAGE, is a multifunctional protein known for its involvement in diverse physiological processes, including inflammation, aging, and chronic diseases. Research using mouse models has been instrumental in unraveling the complexities of sRAGE biology and its implications for health and disease. This study aims to provide a comprehensive exploration of sRAGE in mouse physiology, shedding light on its various functions and potential applications in understanding aging and disease mechanisms.

The primary objective of this research is to elucidate the impact of sRAGE in mouse models on aging processes. In vivo experiments utilizing genetically modified mice with altered sRAGE expression will be conducted to investigate how sRAGE influences the aging process, including effects on tissue homeostasis, oxidative stress, and longevity. Understanding these mechanisms is fundamental for deciphering the role of sRAGE in age-related diseases.

The second objective is to assess the clinical relevance of sRAGE in mouse models of chronic diseases. Mouse models of diseases such as diabetes, Alzheimer's disease, and cancer will be employed to explore how sRAGE modulation affects disease progression, inflammation, and tissue damage. These investigations may provide valuable insights into potential therapeutic strategies targeting sRAGE in various chronic diseases.

The third objective is to explore the broader implications of sRAGE in mouse physiology, including its effects on immunity, tissue repair, and metabolic regulation. Research will investigate its roles in immune cell function, wound healing, and glucose homeostasis. Understanding the multifaceted properties of sRAGE in mouse models may open new avenues for therapeutic interventions in various health and disease contexts.

By delving into the diverse functions of sRAGE in mouse physiology, this research aims to expand our knowledge of its physiological roles and clinical applications. The findings may contribute to the development of targeted interventions for age-related diseases and chronic conditions influenced by sRAGE.

An Insight into Milk Fat Globule-EGF Factor 8 Protein (Mouse Recombinant): Characteristics, Applications, and Future Directions

Abstract

The Milk Fat Globule-EGF Factor 8 (MFG-E8) protein, particularly in its mouse recombinant form, has emerged as a pivotal player in multiple physiological processes. This paper aims to elucidate its unique characteristics, delve into current methodologies employed in its study, and chart the trajectory for future research directions.

Introduction

Milk Fat Globule-EGF Factor 8 (MFG-E8) is a glycoprotein known for its vital role in several cellular processes, including cell signaling, apoptosis, and phagocytosis. The recombinant form of MFG-E8 derived from mouse models offers a valuable tool for researchers in deciphering its biological relevance.

Characteristics of MFG-E8 (Mouse Recombinant)

1. Structural Profile: The MFG-E8 protein harbors EGF-like domains, which enable its participation in numerous cellular signaling events.

2. Expression Spectrum: While originally identified in mammary epithelial cells, its expression spectrum extends to macrophages, dendritic cells, and other tissues.

3. Biochemical Activity: It plays a key role in facilitating the phagocytic clearance of apoptotic cells by bridging these cells to phagocytes.

Methodologies Employed in MFG-E8 Research

1. Production of Recombinant MFG-E8: Using bacterial expression systems, such as E. coli, mouse MFG-E8 DNA is introduced, followed by protein purification techniques like gel filtration chromatography.

2. Assays: The phagocytosis assays employing fluorescently tagged apoptotic cells and phagocytes enable researchers to quantify MFG-E8's effectiveness in apoptotic cell clearance.

3. Immunoblotting: Through SDS-PAGE and Western blotting, the expression and purification of MFG-E8 can be monitored and validated.

4. Knockout Models: MFG-E8 knockout mice models help decipher its in vivo significance, especially concerning its immune-regulatory roles.

Original Ideas & Implications

The potential for MFG-E8, particularly in its mouse recombinant form, to serve as a therapeutic agent in autoimmune disorders remains a tantalizing prospect. Considering its role in apoptotic cell clearance, dysregulation in MFG-E8 might be implicated in the etiology of autoimmune disorders. Thus, targeting this protein therapeutically may pave the way for innovative treatments.

Conclusions & Future Directions

While the recombinant MFG-E8 protein has elucidated much about the biological implications of this protein, the horizon is rife with potential. Future research might focus on its therapeutic potential, particularly in autoimmunity and inflammation.