MOESM3 of Enhanced production of styrene by engineered Escherichia coli and in situ product recovery (ISPR) with an organic solvent

Additional file 3: Figure S3. Effect of temperatures on styrene production

MOESM4 of Enhanced production of styrene by engineered Escherichia coli and in situ product recovery (ISPR) with an organic solvent

Additional file 4: Figure S4. SDS-PAGE result of fed-batch cultivation with n-dodecane using E. coli YHP05 harboring pYHP-FDC and pHB-CA

MOESM1 of Enhanced production of styrene by engineered Escherichia coli and in situ product recovery (ISPR) with an organic solvent

Additional file 1: Figure S1. Schematic diagram of plasmid constructs for the expression of ScFDC gene

MOESM2 of Enhanced production of styrene by engineered Escherichia coli and in situ product recovery (ISPR) with an organic solvent

Additional file 2: Figure S2. SDS-PAGE analysis of genes expression

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Results of angular mobility and motor accuracy for the active range of motion (top) and motor precision task (bottom) of the ankle joint.

Results of angular mobility and motor accuracy for the active range of motion (top) and motor precision task (bottom) of the ankle joint.</p

Angular mobility and motor accuracy.

The graphs illustrate changes of mono-articular mobility (A) and motor accuracy (B) prior (t0), after six weeks of no intervention (t1) as well as after six weeks of WBV (t2). “A” shows significant changes with an asterisk of active range of motion (aROM) in [°] for the ankle joint of the stronger leg (AJSL) and weaker leg (AJWL). “B” illustrates errors (in [V]) during fine motor tasks for the plantar flexion (PF) and dorsal flexion (DF) with the stronger leg (SL, dark grey) and the weaker leg (WL, light grey).</p

Basic position during whole-body vibration training.

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Data_Sheet_1_Feasibility study of computed tomography texture analysis for evaluation of canine primary adrenal gland tumors.pdf

ObjectiveThis study aimed to investigate the feasibility of computed tomography (CT) texture analysis for distinguishing canine adrenal gland tumors and its usefulness in clinical decision-making.Materials and methodsThe medical records of 25 dogs with primary adrenal masses who underwent contrast CT and a histopathological examination were retrospectively reviewed, of which 12 had adenomas (AAs), 7 had adenocarcinomas (ACCs), and 6 had pheochromocytomas (PHEOs). Conventional CT evaluation of each adrenal gland tumor included the mean, maximum, and minimum attenuation values in Hounsfield units (HU), heterogeneity of the tumor parenchyma, and contrast enhancement (type, pattern, and degree), respectively, in each phase. In CT texture analysis, precontrast and delayed-phase images of 18 adrenal gland tumors, which could be applied for ComBat harmonization were used, and 93 radiomic features (18 first-order and 75 second-order statistics) were extracted. Then, ComBat harmonization was applied to compensate for the batch effect created by the different CT protocols. The area under the receiver operating characteristic curve (AUC) for each significant feature was used to evaluate the diagnostic performance of CT texture analysis.ResultsAmong the conventional features, PHEO showed significantly higher mean and maximum precontrast HU values than ACC (p ConclusionCanine primary adrenal gland tumor differentiation can be achieved with CT texture analysis on precontrast images and may have a potential role in clinical decision-making. Further prospective studies with larger populations and cross-validation are warranted.</p

CONSORT 2010 checklist of information to include when reporting a randomised trial*.

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