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March/April 2024: Volume 20: Number 2:New Content Item

Meta-analysis in metabolomics can be challenging due to differences in study design, collection procedures and technologies between cohorts. During our investigation, we identified potential solutions to increase the impact of metabolomic meta-analyses of human health, including increased reporting standards and opportunities for novel tool development in the field.

Prince, N., Liang, D., Tan, Y., Alshawabkeh, A., Angel, E.E., Busgang, S.A., Chu, S.H., Cordero, J.F., Curtin, P., Dunlop, A.L., Gilbert-Diamond, D., Giulivi, C., Hoen, A.G., Karagas, M.R., Kirchner, D., Litonjua, A.A., Manjourides, J., McRitchie, S, Meeker, J.D., Pathmasiri, W., Perng, W., Schmidt, R.J., Watkins, D.J., Weiss, S.T., Zens, M.S., Zhu, Y., Lasky-Su, J.A. & Kelly, R.S. (2024) Metabolomic data presents challenges for epidemiological meta-analysis: a case study of childhood body mass index from the ECHO Consortium. Metabolomics 20: 16 (this opens in a new tab)

February 2024: Volume 20: Number 1:New Content Item

Global metabolic patterns predict metabolism-related diseases like diabetes before their manifestation. The diabetic closeness of metabolism can be predicted even in seemingly healthy individuals using altered metabolic patterns. Machine learning models trained on metabolomics data can raise an early alert for vulnerable individuals and can be used for early diagnostic, prognostic, and treatment of metabolic disorders.

Jain, N., Patel, B., Hanawal, M., Lila, A.R., Memon, S., Bandgar, T. & Kumar, A. (2024) Machine learning for predicting diabetic metabolism in the Indian population using polar metabolomic and lipidomic features. Metabolomics 20: 1 (this opens in a new tab)

January 2024: Volume 20: Number 1New Content Item

Lactic Acid Bacteria (LAB) are powerhouses of food technology, used in a range of products including bread, cheese, yogurts, meat and wine. In this study we show how understanding metabolism of LAB, and potentially directing it, could lead to new products and applications with benefits for the food industry and the consumer.

Parlindungan, E. & Jones. O.A.H. (2023) Using metabolomics to understand stress responses in Lactic Acid Bacteria and their applications in the food industry. Metabolomics 19: 99 (this opens in a new tab)

December 2023: Volume 19: Number 12New Content Item

This study investigates potential biomarkers for lower urinary tract symptoms using a metabolomics approach, demonstrating the role of advanced statistical methods in biomarker identification. The Northern Lights reflect the nature of chance findings in research, emphasizing the necessity for robust statistical analysis to discern true patterns from randomness.

Hopland-Nechita, F.V., Andersen, J.R., Rajalahti, T.K., Andreassen, T. & Beisland, C. (2023) Identifying possible biomarkers of lower urinary tract symptoms using metabolomics and partial least square regression. Metabolomics 19: 82 (this opens in a new tab)

November 2023: Volume 19: Number 11New Content Item

This review covers all aspects of sterol and lipid metabolism in bees.  This area is of increasing interest as the importance of the role of pollinators in crop production and protecting plant biodiversity is becoming more widely understood. We identify a number of unexpected results and knowledge gaps that may be filled in the next decade.

Furse, S., Koch, H., Wright, G.A. & Stevenson, P.C. (2023) Sterol and lipid metabolism in bees. Metabolomics 19: 78 (this opens in a new tab)

October 2023: Volume 19: Number 10Metabolomics October Cover

By applying metabolic profiling LC-MSn techniques, we provided evidence for QTLs for polyphenols in red raspberry. These QTLs represent areas of the genome that influence the accumulation of these health beneficial components and provide genetic markers that could accelerate breeding of new varieties.

McDougall, G.J., Allwood, J. W., Dobson, G., Austin, C., Verrall, S., Alexander, C.J., Hancock, R.D., Graham, J. & Hackett, C.A. (2023) Quantitative trait loci mapping of polyphenol metabolites from a ‘Latham’ x ‘Glen Moy’ red raspberry (Rubus idaeus L) cross. Metabolomics 19: 71 (this opens in a new tab)

September 2023: Volume 19: Number 9September Metabolomics Cover

Monitoring and modeling glutamine metabolic pathways is significant due to its role in cell metabolism. Innovative label-free methods can redefine metabolic biosensing and advance metabolomics research in live cells.

Mirveis, Z., Howe, O., Cahill, P., Patil, N.  & Byrne, H.J. (2023) Monitoring and modelling the glutamine metabolic pathway: a review and future perspectives. Metabolomics 19: 67 (this opens in a new tab)

August 2023: Volume 19: Number 8Metabolomics cover showing an image with elephants and an illustration of elephant serum metabolites

This investigation shows that BAYESIL can be used to automatically annotate 1H NMR spectra obtained from the analyses of limited sample volumes, and that this approach can be applied to identify biological variations in African elephant serum.

van Zyl, C.D.W., van Reenen, M., Osthoff, G. & du Preez, I. (2023) Evaluation of BAYESIL for automated annotation of 1H NMR data using limited sample volumes: Application to African elephant serum. Metabolomics 19: 31 (this opens in a new tab)

July 2023: Volume 19: Number 7Metabolomics Cover July 2023

Soldiers selected for Special Forces training had higher levels of metabolites associated with healthier diets, better physical performance, and resistance to oxidative stress, while non-selected candidates had higher levels of metabolites indicating elevated oxidative stress.

Stein, J.A., Farina, E.K., Karl, J.P., Thompson, L.A., Knapik, J.J., Pasiakos, S.M., McClung, J.P. & Lieberman, H.R. (2023) Biomarkers of oxidative stress, diet and exercise distinguish soldiers selected and non-selected for special forces training. Metabolomics 19: 39 (this opens in a new tab)

June 2023: Volume 19: Number 6New Content Item (this opens in a new tab)

Untargeted LCMS and GCMS-based metabolomics has revealed the dynamics of the white asparagus metabolome. Using advanced analytical and statistical tools the detected metabolites were clustered to form a network (overlay) and the behavior of the clustered metabolites allowed the evaluation of the impact of genotype and environment/seasonal effects.

Pegiou, E., Engel, J., Mumm, R. & Hall, R.D. (2023) Unravelling the seasonal dynamics of the metabolome of white asparagus spears using untargeted metabolomics. Metabolomics 19: 23 (this opens in a new tab)

May 2023: Volume 19: Number 5MEBO Cover 19-5em

The front cover features the winner of the 2023 Best Review Award. This award is for the best review article based on downloads during 2022. Congratulations to Katrice, Bal and mQACC for their excellent work! 

Lippa, K.A., Aristizabal-Henao, J.J., Beger, R.D. et al. Reference materials for MS-based untargeted metabolomics and lipidomics: a review by the metabolomics quality assurance and quality control consortium (mQACC). Metabolomics 18: 24 (this opens in a new tab)

April 2023: Volume 19: Number 4New Content Item

The front cover features the winner of the 2023 Best Article Award. This award is for the best original article based on downloads during 2022.  Congratulations to Iva and colleagues for their excellent work!

Roberts, I., Muelas, M.W., Taylor, J.M., Davison, A.S., Xu, Y., Grixti, J.M., Gotts, N., Sorokin, A. (this opens in a new tab), Goodacre, R. & Kell, D.B. (2022) Untargeted metabolomics of COVID-19 patient serum reveals potential prognostic markers of both severity and outcome. Metabolomics 18: 6. (this opens in a new tab)


March 2023: Volume 19: Number 3Metabolomics Cover March 2023 (this opens in a new tab)

A model that describes sources of variation in LC-MS-based untargeted metabolomics data is used to assist in building data curation pipelines. New quality control (QC) practices based on the use of pooled QC samples analyzed as technical replicates and as process replicates are introduced to assess the analytical quality of data.

Riquelme, G., Bortolotto, E.E., Dombald, M. & Monge, M.A. (2023) Model-driven data curation pipeline for LC-MS-based untargeted metabolomics. Metabolomics 19: 15 (this opens in a new tab)


February 2023: Volume 19: Number 2Metabolomics Cover February 2023 (this opens in a new tab)

This study evaluated 61 LC-HRMS metabolomics data processing software based on criteria related to FAIR Principles for Research Software.  Our results provide an evaluation guideline that can also be used to assess the FAIRness of other multi-omics data processing software.

Du, X., Dastmalchi, F., Ye, H., Garrett, T.J., Dillar, M.A., Liu, M., Hogan, W.R., Brochhausen, M. & Lemas, D.J. (2023) Evaluating LC-HRMS Metabolomics Data Processing Software using FAIR Principles for Research Software. Metabolomics 19: 11 (this opens in a new tab)


January 2023: Volume 19: Number 1Metabolomics Cover January 2023

NMR-based metabolomics demonstrated that maternal exposure to microplastics results in a reduction in glucose and lysine in the mouse placenta.

Aghaei, Z., Mercer, G.V., Schneider, C.M., Sled, J.G., Macgowan, C.K., Baschat, A.A., Kingdom, J.C., Helm, P.A., Simpson, A.J., Simpson, M.J., Jobst, K.J. & Cahill, L.S. (2023) Maternal exposure to polystyrene microplastics alters placental metabolism in mice. Metabolomics 19:1 (this opens in a new tab)



December 2022: Volume 18: Number 12Metabolomics Cover December 2022 (this opens in a new tab)

The application of Blooms cognitive domain in the development and delivery of education and training in metabolomics.

Winder, C.L., Witting, M., Tugizimana, F., Dunn, W.B., Reinke, S.N. on behalf of the Metabolomics Society Education and Training Committee (2022) Providing metabolomics education and training: pedagogy and considerations. Metabolomics 18: 106 (this opens in a new tab)


November 2022: Volume 18: Number 11Metabolomics Cover November 2022

There are similarities that are both instructive in understanding the biology of renal disease and calcium oxalate stones and there are similarities that obfuscate the understanding of the underlying biology. 

This paper uses the power of metabolomics to better understand the biological similarities and differences in these diseases in cats.

Jewell, D.E., Tavener, S.K., Hollar, R.L. & Panickar, K.S. (2022) Metabolomic changes in cats with renal disease and calcium oxalate uroliths. Metabolomics 18: 68 (this opens in a new tab)


October 2022: Volume 18: Number 10Metabolomics October 2022 Cover

Single Cell Metabolism Techniques.
Individual cells can be analyzed either after nanoscale extraction and ionization via various methods, or directly by confocal microscopy using e.g. optical or Raman spectroscopy.
Redrawn and adapted from Duncan et al. (2019). Advances in mass spectrometry based single-cell metabolomics. Analyst 144, 782-79 and Lita, A., et al. (2019). Toward Single-Organelle Lipidomics in Live Cells. Anal Chem 91, 11380-11387
We thank E. He, from Medical Arts of the National Institutes of Health for help with the cover figure.

Ali, A., Davidson, S., Fraenke, E., Gilmore, I., Hankemeier, T., Kirwan, J.A., Lane, A.N., Lanekoff, I., Larion, M., McCall, L-I., Murphy, M., Sweedler, J.V. & Zhu, C. (2022) Single cell metabolism: current and future trends. Metabolomics 18: 77. (this opens in a new tab)

September 2022: Volume 18: Number 9Metabolomics Cover 18-9

A novel ensemble machine learning approach is applied to predict lung cancer patient survival from tumor core biopsy metabolomic data. Increased relative abundance of guanine, choline, and creatine corresponded with shorter Overall Survival (OS), while increased leucine and tryptophan corresponded with shorter Progression-Free Survival (PFS).

Miller, H.A., van Berkel, V.J. & Frieboes, H.B. (2022) Lung cancer survival prediction and biomarker identification with an ensemble machine learning analysis of tumor core biopsy metabolomic data. Metabolomics 18: 57 (this opens in a new tab)


August 2022: Volume 18: Number 8Metabolomics Cover 18-8

PeakForest.org, an open-source FAIR infrastructure supporting MS and NMR experimental spectral metadata storage, information curation, integration into data processing pipelines and spectral data sharing across laboratories.

Paulhe, N., Canlet, C., ... Giacomoni, F. (2022) PeakForest: a multi-platform digital infrastructure for interoperable metabolite spectral data and metadata management. Metabolomics 18: 40 (this opens in a new tab)


July 2022: Volume 18: Number 7Metabolomics Cover July 2022

Here, we show the use of Fusarium as a model system to evaluate the chemical production of microbes by utilizing the full capabilities of PLS with microbial-specific modeling that considers incubation days, media culture availability, and growth rate in solid media

Selegato, D.M., Freitas, T.R., Pivatto, M., Pivatto, A.D., Pilon, A.C. & Castro-Gamboa, I. (2022) Time-related multivariate strategy for the comprehensive evaluation of microbial chemical data chemical response of Fusarium oxysporum to toxic plant-metabolites. Metabolomics 18: 33 (this opens in a new tab)


June 2022: Volume 18: Number 6Metabolomics Cover June 2022

The metabolomics quality assurance and quality control consortium (mQACC) is enabling the identification, development, prioritization, and promotion of suitable reference materials (RMs) to be used in quality assurance (QA) and quality control (QC) for MS-based untargeted metabolomics and lipidomics. RMs are critical QC tools to assure standardization, comparability, repeatability and reproducibility for untargeted data analysis, interpretation, and to compare data within and across studies and across multiple laboratories.

Lippa, K.A., Aristizabal-Henao, J.J., Beger, R.D. et al. Reference materials for MS-based untargeted metabolomics and lipidomics: a review by the metabolomics quality assurance and quality control consortium (mQACC). Metabolomics 18, 24 (2022). https://doi.org/10.1007/s11306-021-01848-6 (this opens in a new tab)


May 2022: Volume 18: Number 5Metabolomics Cover May 2022

The front cover features the winner of the 2022 Best Review Award.
This award is for the best review article based on downloads during 2021.
Congratulations to Biswa for his excellent work:

Misra, B.B. (2021) New software tools, databases, and resources in metabolomics: updates from 2020.  Metabolomics 17: 49. (this opens in a new tab)


April 2022: Volume 18: Number 4New Content Item

The front cover features the winner of the 2022 Best Article Award. This award is for the best original article based on downloads during 2021.
Congratulations to the authors for their excellent work:

Spanier, B., Laurençon, A., Weiser, A., Pujol, N., Omi, S., Barsch, A., Korf, A., Meyer, S.W., Ewbank, J.J., Paladino, F., Garvis, S., Aguilaniu, H. & Witting, M. (2021) Comparison of lipidome profiles of Caenorhabditis elegans — results from an inter‐laboratory ring trial. Metabolomics 17: 25 (this opens in a new tab)


March 2022: Volume 18: Number 3
New Content Item

Lipid traffic analysis was used to investigate the effect of the paternal nutrition on the lipid metabolism of the offspring. Our worked showed that both sperm and seminal plasma contribute to paternal nutritional programming.

Furse, S., Watkins, A.J., Williams, H.E.L., Snowden, S.G., Chiarugi, D. & Koulman, A. (2022) Paternal nutritional programming of lipid metabolism is propagated through sperm and seminal plasma. Metabolomics 18: 13 February 2022: Volume 18: Number 2 (this opens in a new tab)


February 2022: Volume 18: Number 2
New Content Item

In this study, we integrated in vitro metabolomics into a 96-well high-throughput screening platform, employing only 50,000 hepatocytes of HepaRG per well. The intracellular metabolome was measured using optimised high-resolution spectral-stitching nanoelectrospray direct infusion mass spectrometry, which demonstrated good sensitivity and repeatability, allowing for subsequent application of this workflow to study the effect of cadmium chloride on the HepaRG metabolome. The approach presented here demonstrates that metabolomics is able to complement other high-throughput assays to drive animal-free toxicity testing, and could be applied to relevant case studies. 
The cover image was generated using BioRender (BioRender.com).

Malinowska, J.M., Palosaari, T., Sund, J., Carpi, D., Bouhifd, M., Weber, R.J.M., Whelan, M. & Viant, M.R. (2022) Integrating in vitro metabolomics with a 96-well high-throughput screening platform. Metabolomics 18: 11 (this opens in a new tab)

January 2022: Volume 18: Number 1New Content Item

Glyphosate contaminated grain feeding of dairy cows introduces odd-chain fatty acids with branched chain amino acids into metabolism via the TCA cycle and disrupts mitochondrial proton tunneling by high deuterium metabolic water production with health compromising effects in the human consumer.

Lech, J.C., Dorfsman, S.I., Répás, Z., Krüger, T.P.J., Gyalai, I.M., & Boros, L.G. (2021) What to feed or what not to feed-that is still the question. Metabolomics 17: 102 (this opens in a new tab)


December 2021: Volume 17: Number 12New Content Item

Lipid extraction using fresh-frozen samples with ultrasound assistance provides the most original lipid composition and gave a relatively high lipid content.

Lu, Y., Eiriksson, F.F., Thorsteinsdóttir, M. & Simonsen, H.T. (2021) Effects of extraction parameters on lipid profiling of mosses using UPLC-ESI-QTOF-MS and multivariate data analysis. Metabolomics 17: 96 (this opens in a new tab)



November 2021: Volume 17: Number 11New Content Item

IonFlow, a standardised Galaxy workflow for ionomics, was used to study elemental profiling data from the yeast S. cerevisiae BY4741.

Iacovacci, J., Lin, W., Griffin, J.L. & Glen R.C. (2021) IonFlow: a Galaxy Tool for the Analysis of Ionomics Data Sets. Metabolomics 17: 91 (this opens in a new tab)



October 2021: Volume 17: Number 10New Content Item

Comparison between SBSE and SPME on sampling tomato soup metabolites on reproducibility, composition, and predictive ability of sensoric properties.

Davarzani, N., Diez-Simon, C., Großmann, J.L., Jacobs, D.M., Van Doorn, R., Van Den Berg, M.A., Smilde, A.K., Mumm, R., Hall, R.D. & Westerhuis, J.A. (2021) Systematic selection of competing metabolomics methods in a metabolite-sensory relationship study. Metabolomics 17: 77 (this opens in a new tab)



September 2021: Volume 17: Number 9New Content Item

Infrared matrix-assisted laser desorption electrospray ionization mass spectrometry imaging (IR-MALDESI MSI) analysis of human bladder samples provides spatially resolved metabolomic profiles, which reveals tumor heterogeneity and predicts sample pathology using novel statistical methods.

Tu, A., Said, N. & Muddiman, D.C. (2021) Spatially resolved metabolomic characterization of muscle invasive bladder cancer by mass spectrometry imaging. Metabolomics 17: 70 (this opens in a new tab)

August 2021: Volume 17: Number 8New Content Item

The article by Alger et al. in this issue considers the problem of determining which of alternate possible candidate models of tricarboxylic acid cycle metabolism, shown schematically in the cover figure, best fits experimentally-acquired 13C NMR data in metabolic studies that use 13C isotopic tracers.

Alger, J.R., Minhajuddin, A., Sherry, A.D. & Malloy, C.R. (2021) Analysis of steady-state carbon tracer experiments using akaike information criter (this opens in a new tab)ia. Metabolomics 17: 61 (this opens in a new tab)


July 2021: Volume 17: Number 7New Content Item

Environmental factors influence skin microbiota. As a result, microorganisms release volatile organic compounds (VOCs) that are synthesized by different metabolism pathways. These VOCs are involved in interaction processes between skin microbiota and the environment. 

Rios-Navarro, A., Gonzalez, M., Carazzone, C. & Ramírez, A.M.C. (2021) Learning about microbial language: possible interactions mediated by microbial volatile organic compounds (VOCs) and relevance to understanding Malassezia spp. metabolism. Metabolomics 17: 39 (this opens in a new tab)

June 2021: Volume 17: Number 6New Content Item

In response to the growing interest in metabolomic epidemiology, the Metabolomics Society has established the Metabolomic Epidemiology Task Group. The objective of the task group is to promote the growth and understanding of metabolomic epidemiology as an independent research discipline. This includes establishing a network of collaborations to facilitate the coordinated development of the required infrastructure and resources to support the lifecycle of metabolomic epidemiology research as illustrated in the cover image.

Lasky-Su, J., Kelly R. S., Wheelock, C.E. & Broadhurst, D. (2021) A strategy for advancing for population-based scientific discovery using the metabolome: the establishment of the Metabolomics Society Metabolomic Epidemiology Task Group [Metabolimcs 17: 45] (this opens in a new tab)

May 2021: Volume 17: Number 5

The front cover features the winner of the 2021 Best Review Award.Cover of the journal METABOLOMICS volume 17, issue 5 , May 2021
This award is for the best review article based on downloads during 2020. Congratulations to the authors for their excellent work:

O’Shea, K. & Misra, B.B. (2020) Software tools, databases and resources in metabolomics: updates from 2018 to 2019. [Metabolomics 16: 36] (this opens in a new tab)

A Word Cloud is created from Table 1 of this review article that depicts terms enriched for metabolomics, tools, softwares, and resources that appeared in 2020. The WordCloud was created using WordItOut https://worditout.com/ (this opens in a new tab)

April 2021: Volume 17: Number 4

The front cover features the winner of the 2021 Best Article Award.Front cover 17-4-2021 of MEBO/11306
This award is for the best original article based on downloads during 2020. Congratulations to the authors for their excellent work:

Mendez, M.M., Broadhurst, D.I. & Reinke, S.N. (2020) Migrating from partial least squares discriminant analysis to artificial neural networks: a comparison of functionally equivalent visualisation and feature contribution tools using Jupyter notebooks. [Metabolomics 16: 17] (this opens in a new tab)


March 2021: Volume 17: Number 3

The image illustrates the phases of the study, whMarch cover 2021 of the journal Metabolomicsere metabolomics verified that the metabolic profile of obese dogs differs from healthy dogs. In addition, after weight loss the metabolites showed similarities with dogs in ideal body condition, highlighting their importance.
Metabolomics 17: 27, Serum metabolomics analysis reveals that weight loss in obese dogs results in a similar metabolic profile to dogs in ideal body condition (this opens in a new tab)





February 2021: Volume 17: Number 2

The present study pCover of the journal Metabolomics volume 17, issue 2, February 2021rovides information regarding sex and race variations of cerebrospinal fluid (CSF) metabolite levels in healthy individuals. CSF metabolites within the tryptophan, tyrosine, and purine pathways were measured using a targeted electrochemistry-based metabolomics platform and univariate and multivariate analyses were used to identify differences between men and women and African American and white participants. The study highlights the importance of understanding sex and race differences in healthy individuals as those differences could influence health trajectories and have implications for the effectiveness of treatments.
Metabolomics 17:13, Sex and race differences of cerebrospinal fluid metabolites in healthy individuals. (this opens in a new tab)
 

January 2021: Volume 17: Number 1New Content Item

This study has highlighted altered glycerophospholipids in plasma samples taken at 20 weeks of gestation, from women who delivered a small for gestational age baby.
Metabolomics 17:5, Glycerophospholipid and detoxification pathways associated with small for gestation age pathophysiology: discovery metabolomics analysis in the SCOPE cohort. (this opens in a new tab)




December 2020: Volume 16: Number 12
1H NMR metabolomics seems to be a valuablNeuer Inhalte tool in forensic sciences. An in-depth programme of collaborative exercises are needed to standardize ad-hoc protocols before its use in courts.
Metabolomics 16:118, Forensic NMR metabolomics: one more arrow in the quiver (this opens in a new tab)



 


November 2020: Volume 16: Number 11
In previous epidemiological studies, certain classNeuer Inhaltes of plasma sphingolipids, particularly ceramides, were associated with risk of cardiovascular diseases. Our results from a large-scale sphingolipidomic analysis of a prospective cohort do not support the hypothesis that ceramide concentrations are linked to CVD risk, but suggest that other classes of sphingolipids may affect CVD risk.
Metabolomics 16:89, Plasma sphingolipids and risk of cardiovascular diseases: a large-scale lipidomic analysis (this opens in a new tab)



October 2020: Volume 16: Number 10Neuer Inhalt
SWATH Data independent acquisition with different Q1 windows sizes enables comprehensive quantitative analysis at MS1 and MS2 levels and qualitative analysis of complex samples.
Metabolomics 16:71, SWATH-MS for metabolomics and lipidomics: critical aspects of qualitative and quantitative analysis (this opens in a new tab)




September 2020: Volume 16: Number 9Neuer Inhalt
Advanced metabolomics studies require sophisticated analytical instruments such as GC-MS, LC-MS, NMR and hyphenated techniques. GC-MS is probably the most widely used analytical technique in metabolomics laboratories. In this paper, different aspects of sample collection, preparation, analysis and data interpretation involved in the untargeted urinary metabolomics studies using GC-MS are presented. Although, a number of protocols have been published in this regards, users are advised to pay attention to details and optimise every step of the adopted method in house. Areas of compound identification and data interpretation may benefit from optimisation in particular.
Metabolomics 16:66, A review of strategies for untargeted urinary metabolomic analysis using gas chromatography–mass spectrometry (this opens in a new tab)
 

August 2020: Volume 16: Number 8Neuer Inhalt
Conidiospore germination represents an excellent target for novel and improved plant protection agents, and within this context, untargeted metabolomics could ideally serve as a hypothesis-generation tool.  The hydrolysis of intracellular trehalose during the conidiospore germination of Aspergillus nidulans marks the end of their dormancy, and it is followed by the rapid biosynthesis of glycerol, which results in major early osmotic changes.
Metabolomics 16:79, Untargeted metabolomics as a hypothesis-generation tool in plant protection product discovery: Highlighting the potential of trehalose and glycerol metabolism of fungal conidiospores as novel targets (this opens in a new tab)


July 2020: Volume 16: Number 7Neuer Inhalt
By comparing the classic CPMG approach to the LED, using ultrafiltration as a baseline, we aimed to determine a viable untargeted plasma NMR metabolomics protocol for large sample cohorts. Optimization steps included the usage of a quantitative internal standard and an improved method (peak picking) for extracting useful spectral information compared to the conventional one (equidistant bucketing). Our results show an overall improved performance in sample group separation compared to the conventional approach. The metabolite quantitative capabilities of the proposed method are also presented.
Metabolomics 16:64, A comparison of high-throughput plasma NMR protocols for comparative untargeted metabolomics (this opens in a new tab)


June 2020: Volume 16: Number 6Neuer Inhalt

The front cover features the winner of the 2020 Best Review Award. This award is for the best review based on downloads during 2019.

Congratulations to the authors for their excellent work: Mendez, K.M., Pritchard, L., Reinke, S.N. & Broadhurst, D.I. (2019) Toward collaborative open data science in metabolomics using Jupyter Notebooks and cloud computing. Metabolomics 15:125, Toward collaborative open data science in metabolomics using Jupyter Notebooks and cloud computing (this opens in a new tab)


May 2020: Volume 16: Number 5New Content Item

The front cover features the winner of the 2020 Best Article Award. This award is for the best original article based on downloads during 2019.

Congratulations to the authors for their excellent work: King, M., Mullin, L.G., Wilson, I.D., Coen, M., Rainville, P.D., Plumb, R.S., Gethings, L.A., Maker, G. & Trengove, R.
Metabolomics 15:17, Development of a rapid proiling method for the analysis of polar analytes in urine using HILIC-MS and ion mobility enabled HILIC-MS (this opens in a new tab)


April 2020, Volume 16: Number 4New Content Item

The figure on the front cover shows the mapping of the MetaboHub lipid library onto the Human metabolic network; by using chemical ontologies, it was possible to map more lipids (orange nodes) than by regular exact mapping (green nodes).

Improving lipid mapping in Genome Scale Metabolic Networks using ontologies (this opens in a new tab)




March 2020, Volume 16: Number 3New Content Item

The effect of glufosinate to inhibit a key enzyme involved in nitrogen metabolism, glutamine synthetase (GS). GS coupling with glutamine oxoglutarate aminotransferase (GOGAT) forms a principal mechanism to incorporate ammonia (NH4+) into living organisms (GS/GOGAT) pathways. Inhibition of GS disrupts the pathway and subsequently leads to an accumulation of toxic ammonia. Alternative reactions for the biosynthesis and degradation of glutamate are catalyzed by glutamate dehydrogenase (GDH) under a low NH4+ condition. NB: Arrows crossed by double parallel lines indicate interrupted reactions.

Utilization of GC–MS untargeted metabolomics to assess the delayed response of glufosinate treatment of transgenic herbicide resistant (HR) buffalo grasses (Stenotaphrum secundatum L.) (this opens in a new tab)


February 2020, Volume 16: Number 2New Content Item

DESI-MS imaging technology coupled with the new annotation engine-METASPACE will serve as powerful tools to provide insight on fundamental pathways in diabetic kidney disease.

DESI-MSI and METASPACE indicates lipid abnormalities and altered mitochondrial membrane components in diabetic renal proximal tubules (this opens in a new tab)




January 2020, Volume 16: Number 1New Content Item

Integrative analysis of multiple data sets by PE-ASCA model provides an improved understanding of the common and distinct variation in response to different experimental factors.

Common and distinct variation in data fusion of designed experimental data (this opens in a new tab)



 

December 2019, Volume 15: Number 12New Content Item

Neurocognitive deficits affect nearly 50% of infants who underwent surgery for complex congenital heart disease. Emerging evidence suggests a correlation between perioperative events, such as hypoxemia and hypothermia, and adverse neurodevelopmental outcomes. Discovery of potential biomarkers of brain damage is of paramount importance to discriminate newborns at higher risk of worse post-operative outcome. In this paper we present an innovative experimental design that allow the identification of perturbed metabolic pathways limiting drug interference in the analysis. Our findings suggest changes in the kynurenine pathway of tryptophan degradation.

Urinary metabolomics reveals kynurenine pathway perturbation in newborns with transposition of great arteries after surgical repair (this opens in a new tab)


November 2019, Volume 15: Number 11Neuer Inhalt

Insulin resistance is a multifaceted disorder and is at the center of many obesity-related diseases. By integrating targeted lipidomics and shotgun metagenomic sequencing, we highlight potential links between a proinflammatory gut microbiome and host ceramide levels, which may contribute to impaired Glucose homeostasis.

Elevated serum ceramides are linked with obesity-associated gut dysbiosis and impaired glucose metabolism. Metabolomics 15: 140 (this opens in a new tab)



October 2019, Volume 15: Number 10
A machine learning model was Neuer Inhaltestablished using LC-MS-based metabolomic data for discrimination of chrysanthemum cultivars.

Metabolome-based discrimination of chrysanthemum cultivars for the efficient generation of flower color variations in mutation breeding. Metabolomics 15:118 (this opens in a new tab)






September 2019, Volume 15: Number 9Neuer Inhalt

The benefit of MS and NMR data combination using chemometrics for fungi biotransformation reactions optimization.

Processing of NMR and MS metabolomics data (this opens in a new tab)using chemometrics methods: a global tool for fungi biotransformation reactions monitoring. Metabolomics 15: 107 (this opens in a new tab)




August 2019, Vol. 15: Number 8Neuer Inhalt

Irritable bowel syndrome (IBS) is a debilitating functional gut disorder that is increasing in prevalence worldwide despite its poorly understood aetiology. In this work, we identify a panel of urinary metabolites that distinguish IBS from healthy controls that may avoid the need for invasive colonoscopy procedures while revealing new insights into disease pathophysiology, such as accelerated collagen degradation and epithelial cell turn-over.

Metabolomics reveals elevated urinary excretion of collagen degradation and epithelial cell turnover products in irritable bowel syndrome patients. Metabolomics 15:82 (this opens in a new tab)


July 2019, Volume 15: Number 7Neuer Inhalt

Metabolomics goes beyond the last frontier: Thanatometabolomics after "The Disintegration of the Persistence of Memory" from Salvatore Dali. In tribute to the 30th anniversary of Dali's Death, we let the NMR data (NOESY FID, 1D NOESY spectra, 2D COSY spectrum) of our mouse study enter the realm of one of his painting where Biophysics meet Metaphysics.

Thanatometabolomics: introducing NMR-based metabolomics to identify metabolic biomarkers of the time of death. Metabolomics 15: 37 (this opens in a new tab)


June 2019, Volume 15: Number 6Neuer Inhalt

The front cover features the winner of the 2019 Best Review Award. This award is for the best review based on downloads during 2018.

Congratulations to the authors: Broadhurst, D., Goodacre, R., Reinke, S.N., Kuligowski, J., Wilson, I.D., Lewis, M. & Dunn, W.B. (2018) Guidelines and considerations for the use of system suitability and quality control samples in mass spectrometry assays applied in untargeted clinical metabolomic studies. Metabolomics 14: 72 (this opens in a new tab)

NEWS: the 2019 Metabolomics publication awards (this opens in a new tab)


May 2019, Volume 15: Number 5Neuer Inhalt

The front cover features the winner of the 2019 Best Article Award. This award is for the best original article based on downloads during 2018.

Congratulations to the authors: Pan, D., Lindau, C., Lagies, S., Wiedemann, N. & Kammerer, B. (2018) Metabolic profiling of isolated mitochondria and cytoplasm reveals compartment-specific metabolic responses. Metabolomics 14: 59 (this opens in a new tab)

NEWS: the 2019 Metabolomics publication awards (this opens in a new tab)


April 2019, Volume 15: Number 4Neuer Inhalt

Environmental lipidomics may help understand the severity and distribution of a disease leading to mass mortality of aquatic wildlife in South Africa. Metabolomics 15:38

Lipidomics for wildlife disease etiology and biomarker discovery: a case study of pansteatitis outbreak in South Africa (this opens in a new tab) 




March 2019, Volume 15: Number 3Neuer Inhalt

The calculation of similarity is an important tool to reveal variability between samples and spectra and can be used to verify data sets and improve alignment or binning procedures. With differential spectroscopy marker compounds are easily discovered. The methods can be seen as an important addition to the routine procedures of metabolomics experiments. Metabolomics 2019, 15:39

Similarity and Differential NMR Spectroscopy in Metabolomics - Application to the analysis of vegetable oils with 1H and 13C NMR (this opens in a new tab)


 

February 2019, Volume 15: Number 2Neuer Inhalt

A rapid HILIC-MS method, combined with ion mobility spectrometry, for high throughput metabotyping. Metabolomics 2019, 15:17

Development of a rapid profiling method for the analysis of polar analytes in urine using HILIC–MS and ion mobility enabled HILIC–MS (this opens in a new tab)




January 2019, Volume 15: Number 1Neuer Inhalt

HPLC-PDA-MS metabolite profiling was applied to study the effect of changing climate conditions on the metabolism of blackcurrants within a controlled growth system environment. Clear gradients of metabolite change were observed as the growth temperature was increased from 12-to-18-to-24oC.

Phenylalanine, a key polyphenolic compound pre-cursor, was up-regulated as the growth temperature increased, which correlated with an increase in concentration across the majority of flavonoids. Interestingly, delphinidin-3-O-rutinoside and cyanidin-3-O-rutinoside, the most abundant blackcurrant anthocyanins, showed a peak in concentration at the intermediate growth temperature and under ambient conditions.

High levels of accumulation of the most abundant anthocyanins in ambient (outdoor) conditions, was predicted to be associated with greater levels of UV-B exposure than plants would be subjected to under glass or within polytunnels.

Metabolite profiling approaches will aid our understanding of the effect that future climate changes will likely have upon our fresh fruit produce and will assist breeders in developing fruits that are better adapted to cope with such changes.

The authors gratefully acknowledge Thermo Fisher for their permission to use the image of the LTQ Series Orbitrap Mass Spectrometer system used in the cover art. Metabolomics 2019, 15:12.

Application of HPLC–PDA–MS metabolite profiling to investigate the effect of growth temperature and day length on blackcurrant fruit (this opens in a new tab)

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