Adiponectin Analysis Service
InquiryOverview of the Relationship between Adiponectin and Obesity
Adiponectin, a protein predominantly generated and secreted by adipocytes into the circulatory system, exhibits a counter-relationship with body mass, particularly in contexts of visceral fat accumulation. Initially identified by various research teams as adipocyte complement-related protein of 30 kDa (Acrp30), adiponectin emerges as a pivotal adipokine, abundantly manufactured and released by adipose tissue. Its total levels diminish in the context of obesity but exhibit an uptick upon weight reduction. Total adiponectin demonstrates an inverse correlation with body mass index (BMI), glucose levels, insulin, triglycerides, and notably, visceral fat accumulation. The manner in which adipose tissue expands—whether through hypertrophic enlargement or via hyperplastic increases in cell number—may dictate the synthesis and release of adiponectin. Notably, a negative correlation exists between the average diameter of adipocytes and adiponectin secretion. Therefore, Protheragen provides adiponectin analysis to assess how interventions impact adipose tissue function and overall metabolic health.
Unlocking Obesity Insights, One Adiponectin at a Time
Adiponectin analysis is important for our preclinical studies of anti-obesity therapeutics, as it provides vital biochemical insights needed to evaluate the efficacy of anti-obesity therapy. A variety of pioneering strategies in anti-obesity therapies are currently under exploration at Protheragen.
Anti-Obesity Therapy Development
- Anti-Obesity Small Molecule Drug Development
- Anti-Obesity Gene Therapy Development
- Anti-Obesity Cell Therapy Development
- Anti-Obesity Antibody Therapy Development
- Anti-Obesity Tissue Engineering Therapy Development
- Anti-Obesity Nanotherapy Development
Preclinical Studies of Anti-Obesity Therapeutics
Our approach spans a multitude of pivotal domains for researching the preclinical studies of anti-obesity therapeutics, meticulously designed to assess the efficacy and safety of novel anti-obesity interventions. The comprehensive framework includes the following components:
By measuring adiponectin levels in preclinical models, we assess how our interventions impact adipose tissue function and overall metabolic health. Elevated adiponectin concentrations often correlate with improved insulin sensitivity and reduced inflammation, which are critical outcomes in the context of obesity treatment.
In the arena of pharmacodynamic investigations, our focus sharpens on the effects of treatments on body weight, body fat, and metabolic parameters. The integration of data from the adiponectin analysis service allows us to substantiate how these therapies modulate adiponectin secretion from adipocytes, thereby enhancing metabolic health.
Unraveling the correlation between the kinetic behavior of the drug and fluctuations in adiponectin levels provides a crucial avenue for refining therapeutic regimens.
By delving into the interaction between anti-obesity therapeutics and adiponectin, we gather indispensable data that informs both efficacy and safety assessments.
Lastly, safety assessments are paramount in our evaluations, ensuring that new therapies are benign in their application. A particular focus is placed on monitoring adiponectin levels to preclude any potential metabolic side effects.
This analysis enables us to establish a clearer understanding of the mechanisms through which our therapies may exert their effects. Furthermore, by linking adiponectin responses to changes in body weight and metabolic parameters, our studies offer robust data that support the advancement of novel anti-obesity therapeutics. In essence, Obesity Biomarker Identification and Analysis not only enhances the precision of our preclinical evaluations but also strengthens the foundation for transitioning successful interventions into clinical applications.
Workflow of Leptin Analysis
Our researchers provide a comprehensive assessment of adiponectin levels in both plasma and cerebrospinal fluid (CSF), catering to researchers interested in the role of adiponectin in various physiological and pathological conditions.
Sample Preparation
The client's plasma and CSF samples are carefully stored and transported under appropriate conditions until processing for analysis. Samples undergo a pre-treatment protocol, where possible interfering substances may be removed, and concentration adjustments made as necessary.
Immunoblot Analysis
We use an immunoblot technique to validate the presence of adiponectin in samples.
- Gel electrophoresis is used to separate adiponectin proteins.
- We transfer proteins to a membrane, followed by incubation with specific antibodies against adiponectin.
- We use appropriate detection methods to visualize and confirm the presence of adiponectin.
Quantification by Enzyme-Linked Immunosorbent Assay (ELISA)
We employ ELISA to quantify adiponectin levels in both plasma and CSF samples.
- Samples are added to wells coated with anti-adiponectin antibodies.
- After incubation, we add a secondary enzyme-linked antibody specific to adiponectin.
- A substrate solution is then added, yielding a measurable colorimetric change proportional to the quantity of adiponectin present.
- Optical density is measured using a microplate reader, and adiponectin concentrations are calculated using standard curves.
Data Analysis
We correlate the levels of adiponectin in the CSF with the systemic circulating levels in plasma to determine the relationship and efficiency of adiponectin entry into the CSF. We compute the ratios of CSF to serum adiponectin and CSF to serum albumin to assess the integrity and permeability of the blood-brain barrier (BBB) or blood-cerebrospinal fluid barrier (BCB), along with their physiological implications.
Reporting Results
Results are compiled in a comprehensive report detailing the adiponectin concentrations in both plasma and CSF, along with statistical analyses of correlations.
Our analysis process ensures high-quality and reliable results, contributing valuable insights into the understanding of adiponectin's role in human health.
Applications
- During the new drug development process, our service can be used to evaluate the impacts of pharmacological treatments on metabolic disorders.
- Our service provides valuable insight into the mechanisms behind the progression of metabolic syndrome.
- Our analysis assists clients in understanding the pathogenesis of diabetes and in the screening of potential therapeutic agents aimed at this condition.
Advantages
- Our service covers a wide range of critical domains, including obesity models, pharmacodynamic and pharmacokinetic studies, bioanalysis, and safety assessments.
- By linking adiponectin responses to changes in body weight and metabolic parameters, our studies offer robust data that support the efficacy of novel anti-obesity interventions.
- From sample preparation to data analysis and reporting, we offer a seamless, end-to-end service that eliminates the need for clients to engage multiple providers.
Publication Data
DOI: 10.1186/1471-2458-13-88
Journal: BMC Public Health
Published: 2013
IF: 3.5
Result: In this study, the authors studied the relationship between adiponectin levels and the components of metabolic syndrome (MetS) among school-aged children in Mexico, specifically comparing eutrophic and obese groups. The cross-sectional research involved 190 obese children and 196 eutrophic children, where various metrics—including adiponectin, blood glucose, insulin, high-density lipoprotein cholesterol (HDL-C), and triglycerides—were meticulously measured. Additionally, the prevalence of MetS and its associated factors were thoroughly evaluated. Findings revealed that the prevalence of MetS among obese children stood at 13%. Notably, adiponectin levels exhibited an inverse relationship with MetS components, with obese children presenting low adiponectin levels, displaying heightened frequency of MetS components. Through robust logistic regression analysis, it was determined that those with the lowest adiponectin levels faced a significantly elevated risk of developing MetS, with an odds ratio of 10.9. This indicates that adiponectin may indeed serve as a valuable biomarker for identifying individuals at risk of MetS.
Frequently Asked Questions
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What are the different types of adiponectin?
Adiponectin is central to energy metabolism, it contains high molecular weight (HMW), medium molecular weight hexameric (MMW), and low molecular weight (LMW). Numerous investigations have illustrated a robust association between HMW adiponectin and multiple metabolic derangements, whereas the implications of MMW and, to a lesser extent, LMW oligomers remain inadequately explored.
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What other diseases is adiponectin linked to?
- Type 2 diabetes
- Atherosclerosis
- Sleep apnea
- Non-alcoholic fatty liver disease
- Gastritis and gastroesophageal reflux disease
- Inflammatory bowel disease
- Pancreatitis
- Osteoporosis
At Protheragen, the adiponectin analysis service is not merely a component but a cornerstone of our early-stage investigations into anti-obesity therapies. Through our service, clients deeply understand obesity and its therapeutic mitigation. If you want to obtain robust data that underpins the development of effective and safe anti-obesity solutions, contact us!
Reference
- Klünder-Klünder, M.; et al. Adiponectin in eutrophic and obese children as a biomarker to predict metabolic syndrome and each of its components. BMC public health. 2013, 13: 1-8. (CC BY 2.0)
All of our services and products are intended for preclinical research use only and cannot be used to diagnose, treat or manage patients.