dedup-isc-ft-v107-score
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0.41412 |
1384ff1583f14cb6adafa46ef22df454
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SEM images of (a) MoS2-only, (b) MoS2/GNS 9 : 1, (c) MoS2/GNS 8 : 2, and (d) MoS2/GNS 7 : 3.
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PMC9053862
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d0ra03539d-f3.jpg
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0.499084 |
8ca7b3852220426b88d5fbe7289625eb
|
TEM images of (a and e) MoS2-only, (b and f) MoS2/GNS 9 : 1, (c and g) MoS2/GNS 8 : 2 and (d and h) MoS2/GNS 7 : 3.
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PMC9053862
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d0ra03539d-f4.jpg
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0.416096 |
998f2490660c46f68ffa82df0c8375e4
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(a) Cycle performances of MoS2/GNS electrodes at 200 mA g−1. Charge–discharge profiles of (b) MoS2-only, (c) MoS2/GNS 9 : 1, (d) MoS2/GNS 8 : 2, and (e) MoS2/GNS 7 : 3 measured at a current density of 200 mA g−1.
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PMC9053862
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d0ra03539d-f5.jpg
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0.472086 |
8b33c16a524740219d99d86698d0c17e
|
CV curves of (a) MoS2-only, (b) MoS2/GNS 9 : 1, (c) MoS2/GNS 8 : 2, (d) MoS2/GNS 7 : 3 in the 1st, 3rd, 10th scans at a scan rate of 0.2 mV s−1 in the potential range of 0.0–3.0 V vs. Li/Li+.
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PMC9053862
|
d0ra03539d-f6.jpg
|
0.413904 |
9e0bf31570624a0b9c3bd1db7f97daf1
|
High-rate performance of the MoS2/GNS anodes measured at varying current densities for each 10 cycles.
|
PMC9053862
|
d0ra03539d-f7.jpg
|
0.420623 |
f53f4338a0dd4651940a698ddd219195
|
Nyquist plots of the samples after 3 cycles at a current of 200 mA g−1.
|
PMC9053862
|
d0ra03539d-f8.jpg
|
0.423883 |
1a5c0f05f7594bdabd4d46d6fd8b0d82
|
The GITT analysis after the 3rd cycle. (a) Diffusivity of Li+ ion according to the state of charge (SOC) and (b) the average Li+ ion diffusion coefficients of the samples.
|
PMC9053862
|
d0ra03539d-f9.jpg
|
0.407229 |
89d9e601d6744fd0b68d655e34cfdf1f
|
Statistics of the main clinical manifestations of children.
|
PMC9054457
|
CMMI2022-1985531.001.jpg
|
0.440322 |
92ee31283e52419998307c2d4f69c3d2
|
CT image characteristics of children before and after treatment.
|
PMC9054457
|
CMMI2022-1985531.002.jpg
|
0.360993 |
f4695dab53bb43f4a41ec0abbc92fbb4
|
The main manifestations of chest HRCT in children with MPP in acute phase.
|
PMC9054457
|
CMMI2022-1985531.003.jpg
|
0.437115 |
2412622a178a4bbe92d06e9d38771b91
|
The correlation between different lung HRCT manifestations and PVF in children ( ∗(P) < 0.05).
|
PMC9054457
|
CMMI2022-1985531.004.jpg
|
0.485535 |
dea0e00e8858477f9daa5090854073c5
|
Comparison of PVF indicators in MMP children at different stages ( ∗(P) < 0.05).
|
PMC9054457
|
CMMI2022-1985531.005.jpg
|
0.436121 |
c231e6f3915f4d8081c42bdc092570bd
|
Flow diagram for the construction of CoRE MOF 2019 database.
|
PMC9055497
|
d0ra02498h-f1.jpg
|
0.402622 |
54170f77a07b4b1dbc8502cb7fab8da2
|
Examples of artifacts being screened in this paper. Panel (A) is an example of isolated atoms in the data that are likewise isolated in the real physical specimen (the circled atoms are F− ions). Panel (B) is an example of isolated atoms in the data that are likely not isolated in the real physical specimen (the circled atoms are oxygen atoms which likely belong to water molecules in the physical specimen for which hydrogen atoms were omitted in the reported crystal structure). Panel (C) is an example of overlapping atoms. Panel (D) is an example of misplaced hydrogens. Panel (E) is an example of under-bonded carbons. Panel (F) is an example of over-bonded carbons.
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PMC9055497
|
d0ra02498h-f2.jpg
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0.480474 |
f45fa410683c4bb984284849bd150ee1
|
Flow diagram of this project.
|
PMC9055497
|
d0ra02498h-f3.jpg
|
0.43588 |
b18eaa6eaf6f420d81982b4e7635adc7
|
Schematic illustration of borophene with few layers exfoliated by the probe ultrasonic assisted solvothermal treatment process.
|
PMC9055579
|
d0ra03492d-f1.jpg
|
0.44416 |
78ed905115f7488eb4acf6dff624342c
|
Optical microscope photos, SEM images, and TEM images of borophene with few layers exfoliated in different solvents: acetone (a–c), DMF (d–f), acetonitrile (g–i), ethanol (j–l), and NMP (m–o) (the insets show the Tyndall effect of borophene dispersion with few layers).
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PMC9055579
|
d0ra03492d-f2.jpg
|
0.384438 |
de2238997e80422988fd8e2ceca0d51d
|
AFM images and the corresponding height profiles of borophene with few layers exfoliated in different solvents: acetone (a and b), DMF (c and d), acetonitrile (e and f), ethanol (g and h), and NMP (i and j), respectively.
|
PMC9055579
|
d0ra03492d-f3.jpg
|
0.414126 |
b721a50effe94f6a91273cac3cef82c0
|
Statistical data showing the lateral flake size average (a) and the thickness (b) of borophene with few layers in acetone.
|
PMC9055579
|
d0ra03492d-f4.jpg
|
0.423229 |
0fb06dc1bd09489abb165a277f305291
|
SEM images with low resolution (a) and high resolution (b) and TEM images of borophene with few layers obtained by probe ultrasonic assisted solvothermal exfoliation in acetone and corresponding FFT pattern of the selected area (c–e).
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PMC9055579
|
d0ra03492d-f5.jpg
|
0.44754 |
9ba1792e2b7d48c78d4aa57af11e0e24
|
HAADF STEM and corresponding EELS elemental mapping images of borophene with few layer boron sheets by probe ultrasonic assisted solvothermal exfoliation, followed by centrifugation treatment in acetone: STEM image (a), boron (b), carbon (c), and oxygen (d).
|
PMC9055579
|
d0ra03492d-f6.jpg
|
0.41099 |
e14d8db427de4ff2aa9c9790301ec3e8
|
XRD patterns (a) and Raman spectra (b) of bulk B and borophene with few layers obtained by probe ultrasonic assisted solvothermal exfoliation.
|
PMC9055579
|
d0ra03492d-f7.jpg
|
0.402509 |
5f0ca5ddd95e4ae7a30e34d6fc9883bb
|
XPS spectra (survey) (a) and short scan XPS B 1s (b) of bulk B and borophene with few layers obtained by probe ultrasonic assisted solvothermal exfoliation.
|
PMC9055579
|
d0ra03492d-f8.jpg
|
0.410164 |
5a8e3deaef83423fa7e32fa38091ec15
|
(a) The high-resolution Co 2p, (b) Cu 2p, (c) C 1s, and (d) N 1s XPS spectra of the CD@CuCoPBA nanocomposite. (e and f) Low- and high-magnification SEM and (g and h) TEM images of the CD@CuCoPBA nanocomposite.
|
PMC9055645
|
d0ra01439g-f1.jpg
|
0.423299 |
cebd5be0385945608e2dcae813444b97
|
Cell viability of CD@CuCoPBA with different (a) CD@CuCoPBA concentrations and (b) MTT incubation time intervals, (c) cell uptake behaviors of CD@CuCoPBA incubated with MCF-7 cell for 1 h. Confocal microscopy images were obtained through different channels according to the CD@CuCoPBA emission (the scale bar corresponds to 50 μm).
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PMC9055645
|
d0ra01439g-f2.jpg
|
0.452372 |
1f63a5f2fd9c41d6b07211df2dd51c3b
|
EIS Nyquist plots of the determination procedure for EGFR by using (a) the CuCoPBA- and (b) CD@CuCoPBA-based sensors, including the bare AE, materials/AE, Apt/materials/AE, and EGFR/Apt/materials/AE; (c) EIS responses of the Apt/CD@CuCoPBA/AE against EGFR with different concentrations of 0.001, 0.005, 0.05, 0.5, 5, 50, 500 and 1000 pg mL−1; (d) dependence of the ΔRct values on the EGFR concentration detected by the Apt/CD@CuCoPBA/AE. The linear part of the calibration curve is shown in the inset of (d). (e) The sensing selectivity measurement. The ΔRct values of the proposed electrochemical sensor by separately adding different interferents, including HER2, IgG, IgE, PSA, BSA, and CEA with the concentration of 0.5 pg mL−1, EGFR of 5.0 fg mL−1, and their mixture. (f) Reproducibility, (g) stability, and (h) regeneration of the proposed aptasensors for detecting EGFR with the concentration of 5.0 fg mL−1 (n = 3).
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PMC9055645
|
d0ra01439g-f3.jpg
|
0.416736 |
978146b2d0c6437385c5c7e724f0a04d
|
(a) EIS Nyquist plots and (b) CV curves for testing the whole detection procedure of MCF-7 cells using the proposed CD@CuCoPBA-based aptasensor. (c) EIS responses of the Apt/CD@CuCoPBA/AE against MCF-7 cells with different concentrations of 5 × 102, 1 × 103, 5 × 103, 1 × 104, 5 × 104, and 1 × 105 cell per mL; (d) dependence of the ΔRct values on the MCF-7 cell concentration using the Apt/CD@CuCoPBA/AE. The linear parts of the calibration curves are shown in the inset of (d). (e) The ΔRct values of CD@CuCoPBA-based aptasensor for detecting L929 and C6 cells with the concentration of 500 cell per mL. (f) Reproducibility of the CD@CuCoPBA-based sensor for detecting MCF-7 cells with the concentration of 100 cell per mL (n = 3).
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PMC9055645
|
d0ra01439g-f4.jpg
|
0.406426 |
4c8b22e538a24e019003231bec16acf7
|
Schematic working principle of the developed functional DNA biosensors that use SPMs A, B and C loaded with aptamers or DNAzymes and enzyme-coated SiO2 microbeads for read-by-eye distance-measuring quantification of adenosine, interferon-γ, and Pb2+ (as three model analytes) based on starch-hydrolysis-adjusted wettability change in strip-like μPADs, respectively.
|
PMC9055663
|
d0ra04619a-f1.jpg
|
0.42062 |
148d380c7f3c4203ae951792a6563583
|
Flowing distance (FD) results of the colored reagent obtained from different solutions in the strip-like μPADs. The scale bar is 3.5 mm.
|
PMC9055663
|
d0ra04619a-f2.jpg
|
0.395553 |
70b4d68b059a4a0f9c62be2ab396c72f
|
(A) Flowing distance (FD) results obtained from a starch solution (0.5 wt%), a blank sample (PBS buffer without the analyte), 50 μM adenosine, and three other sorts of small molecules (100 μM each). (B) Calibration curve that describes the relationships between the FD change (ΔFD = FDadenosine − FDblank) and the logarithm values of the adenosine concentrations (log[adenosine]) in the buffer samples. The linear regression equation is y = 2.7651x + 1.8551 (R = 0.9914). Each error bar represents a standard deviation across three replicate experiments.
|
PMC9055663
|
d0ra04619a-f3.jpg
|
0.399264 |
e59ea8a40bf341fe855e14398317427a
|
(A) Flowing distance (FD) results obtained from a blank sample (HEPES buffer without the analyte), 30 nM interferon-γ, and three other sorts of proteins (10 μM each). (B) Calibration curve that describes the relationships between the FD change (ΔFD = FDinterferon-γ − FDblank) and the logarithm values of the interferon-γ concentrations (log[interferon-γ]) in the buffer samples. The linear regression equation is y = 2.7406x + 2.6643 (R = 0.9961). Each error bar represents a standard deviation across three replicate experiments.
|
PMC9055663
|
d0ra04619a-f4.jpg
|
0.411336 |
1cb7f95ea06d4dec9af1042e71fd0170
|
(A) Flowing distance (FD) results obtained from a blank sample (HEPES buffer without the analyte), 50 nM Pb2+, and twelve other sorts of metal ions (1 mM each). (B) Calibration curve that describes the relationships between the FD change (ΔFD = FDPb2+ − FDblank) and the logarithm values of the Pb2+ concentrations (log[Pb2+]) in the buffer samples. The linear regression equation is y = 2.7252x + 2.3799 (R = 0.9973). Each error bar represents a standard deviation across three replicate experiments.
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PMC9055663
|
d0ra04619a-f5.jpg
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0.431841 |
f140e3d9ff564148ba070acbf4931b47
|
(a) Ball and stick models of IL ions and peptide dimer. (b) Simulation boxes of peptide dimer in 10% and 70% (w/w) EAM, EAN, and TEAM ILs. Color scheme: cation-transparent surface, anion, water-stick, peptide-new cartoon.
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PMC9056671
|
d0ra06609e-f1.jpg
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0.434459 |
149699aff5b1490593450c6455ab72de
|
(a) Free energy profile of peptide (16–22) dimer in water and corresponding conformations of minima. (b) RDFs of water hydrogen and oxygen atoms around amide oxygen and hydrogen atoms of the peptide backbone. The dashed lines represent the number integral for the corresponding RDF.
|
PMC9056671
|
d0ra06609e-f2.jpg
|
0.436529 |
d9601f46ae3d4d26864a8ff5c7d572d3
|
Free energy profiles of peptide (16–22) dimer in 10% and 70% (w/w) EAM (a and b), EAN (c and d), and TEAM (e and f) ILs and corresponding conformations of minima.
|
PMC9056671
|
d0ra06609e-f3.jpg
|
0.441426 |
0f0901c59df8456badfe7cf8a385dad2
|
Semi-log representation of RDFs of cation, anion, and water around amide oxygen and hydrogen atoms of the peptide backbone for the corresponding minimum free energy conformations in 10% (w/w) EAM (a and b), EAN (c and d), and TEAM (e and f) IL. The dashed lines represent the number integral for the corresponding RDF.
|
PMC9056671
|
d0ra06609e-f4.jpg
|
0.481168 |
b1363b102add47aa9a848c33bfe81e55
|
Semi-log representation of RDFs of cation, anion, and water around amide oxygen and hydrogen atoms of the peptide backbone for the corresponding minimum free energy conformations in 70% (w/w) EAM (a and b), EAN (c and d), and TEAM (e and f) IL. The dashed lines represent the number integral for the corresponding RDF.
|
PMC9056671
|
d0ra06609e-f5.jpg
|
0.477216 |
9746d28b91ff42ec93b11ec4dc52899f
|
The average solvent-accessible surface area of the peptide dimer overall solutions with changing the average Ψ.
|
PMC9056671
|
d0ra06609e-f6.jpg
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0.479917 |
b0db83271924414aab6544946b551252
|
Comparative surface plasmon resonance peaks of reaction mixtures for AgNPs synthesis in WPE, and extracts from TDZ-induced cell cultures, and MLN-induced cells cultures. Controls; cell extracts only, Ag, and WPE only.
|
PMC9057356
|
d0ra08419k-f1.jpg
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0.469414 |
20f89becf2f9402695497250e757718d
|
Dose–response recorded in terms of AgNPs yield when supplemented with different concentrations of WPE and extracts from TDZ-induced cell cultures, and MLN-induced cell cultures at a constant concentration of AgNO3 (2 mM).
|
PMC9057356
|
d0ra08419k-f2.jpg
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0.454465 |
cada31a3d0c74d42b49ef73c44001d9c
|
Time course analysis of yield of AgNPs biosynthesized through extracts of TDZ-induced cell cultures, MLN-induced cell cultures, and whole plant of F. indica.
|
PMC9057356
|
d0ra08419k-f3.jpg
|
0.408883 |
c0b48e76a6194a4d8c1d556ebc4f242c
|
Comparison of the reaction mixture of AgNPs synthesized through extracts of MLN induced cell cultures (left), TDZ-induced cell culture (center), and whole plant (right) after 48 hours of incubation.
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PMC9057356
|
d0ra08419k-f4.jpg
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0.528795 |
d28e47c1647c47e2b30714af731eed05
|
Transmission electron microscopy (TEM) based images of AgNPs synthesized via extracts from (a) MLN-supplemented cell cultures (b) TDZ-supplemented cell cultures and (c) naturally grown F. indica.
|
PMC9057356
|
d0ra08419k-f5.jpg
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0.459738 |
bf7002e9d7174874801c4eacf3835d56
|
Size distribution of AgNPs synthesized through aqueous extracts of (a) TDZ-induced cell cultures (b) MLN-induced cell cultures and (c) naturally grown F. indica.
|
PMC9057356
|
d0ra08419k-f6.jpg
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0.603377 |
0fa05fc72ef64569b32881b0e83498e1
|
Venn diagram for the comparative analysis of compounds detected through LC-MS/MS.
|
PMC9057356
|
d0ra08419k-f7.jpg
|
0.549445 |
b02e05bbbecf47fa937958994b9e65d0
|
Reactive oxygen quantification in bacterial cultures grown in the presence of different concentrations of AgNPs synthesized in MLN-based in vitro callus cultures.
|
PMC9057356
|
d0ra08419k-f8.jpg
|
0.441635 |
8706347f48a44fbf9fda1e8d0ed942a3
|
The topographic distribution of the pelvic resection zones.
|
PMC9057553
|
JDRS-2022-33-1-117-131-F1.jpg
|
0.414584 |
0424858b25904de089766fb363b0f704
|
Extended lateral incision with the
flexible lateral decubitus position.
|
PMC9057553
|
JDRS-2022-33-1-117-131-F2.jpg
|
0.423293 |
9de788037d024365a9aa8f12c6943130
|
(a) Preoperative anteroposterior (AP) pelvis radiograph of the 42-year-old patient with recurrent malignant giant cell
tumor (mGCT) involving almost the entire left hemipelvis. (b) 3-dimensional (3D) reconstruction on computed tomography (CT) with
the soft tissue component of the recurrent tumor involving the left hemipelvis of the same patient. (c) 3D reconstruction on CT with
only bony structures revealed the massive destruction, particularly in zone II and zone III. (d) Postoperative AP pelvis radiograph
at 10 years. (e) 3D CT AP view of the patient who underwent combination of allograft and cemented arthroplasty after Zone I + II
+ III resection. (f) 3D CT lateral view of the patient who underwent combination of allograft and cemented arthroplasty after Zone
I + II + III resection. (g) Excellent functional result was obtained with 80% musculoskeletal tumor society (MSTS) score.
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PMC9057553
|
JDRS-2022-33-1-117-131-F3.jpg
|
0.419355 |
cdeaee192355473aba7995d1a51a610e
|
(a) Preoperative axial computed tomography (CT) image of our 45-year-old patient with right periacetabular osteogenic
sarcoma (OGS). (b) Intramedullary OGS in the right periacetabular region in coronal T2 contrast-enhanced magnetic resonance
images (MRI). (c) Postoperative anteroposterior (AP) pelvis radiograph at three years. (d) Aseptic loosening complication at the
allograft and cement interface of hip arthroplasty in the 44th month follow-up of our patient who underwent type I + II resection. (e)
Postoperative 10th year control AP pelvis radiography after revision with acetabular cage + cemented constraint cup. (f) Excellent
functional result was obtained with 85% musculoskeletal tumor society (MSTS) score. He walks without any assistive device.
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PMC9057553
|
JDRS-2022-33-1-117-131-F4.jpg
|
0.393847 |
1edd14613f69487cbb281e2b0e43a3dd
|
(a) Preoperative anteroposterior (AP) pelvis radiograph of the 35-year-old patient with high grade chondrosarcoma
(CHS) involving right hemipelvis. (b) Intraosseous chondroid matrix mineralization and cortical destruction are seen in axial T2
contrast-enhanced magnetic resonance images (MRI) in right ileum. (c) Postoperative 6th year AP pelvis radiography. Excellent
functional result was obtained with 80% musculoskeletal tumor society (MSTS) score. She walks without any assistive device.
(d) It was possible to remove the tumor en bloc by performing wide resection with the surrounding gluteus maximus and iliacus
muscle. (e) Allograft was placed anatomically between the pubic, ischium and residual crescent bone fragments, and the graft was
supported vertically with lumbopelvic stabilization in addition to the combination of cemented constraint hip arthroplasty.
|
PMC9057553
|
JDRS-2022-33-1-117-131-F5.jpg
|
0.434124 |
7e161c4add1d4d359d810c0131177e4a
|
(a) Preoperative anteroposterior (AP) pelvis radiograph of the 43-year-old patient with giant high grade MMT causing
destruction of the right hemipelvis (b) Coronal CT images showed how much the soft tissue component pushes the visceral organs
to the contralateral side, and destruction of the tumor, especially in the periacetabular area and ischium. (c) Considering that the
large tumor even crossed the midline medially, only marginal resection could be made, as can be understood from the specimen.
(d) Osteosynthesis with reconstruction plates between the residual ileum and pubic bone and the perfectly cut allograft. Hip joint
restoration with large-head proximal femur resection prosthesis for stability. (e) Postoperative 5th months AP pelvis radiography.
This patient died of lung metastasis with deep infection before local recurrence was observed in the 6th postoperative month. Poor
functional result with the MSTS score of 26% and could only be mobilized with 2 crutches.
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PMC9057553
|
JDRS-2022-33-1-117-131-F6.jpg
|
0.40724 |
bab24d4f62634a8681a0fd0a57dc66f6
|
Patient flow chart. PH, pulmonary hypertension.
|
PMC9058072
|
fcvm-09-814557-g001.jpg
|
0.438899 |
bd391e8d9e3f4d2ea0b386f8805d2f1b
|
The relative feature importance of predictor variables included in the gradient boosting decision tree for predicting the death of pregnant women with pulmonary hypertension. NT-proBNP, N-terminal brain natriuretic peptide; PASP, pulmonary artery systolic pressure; ALB, albumin; RA, right atrium; APTT, activated partial thromboplastin time; RDW, red cell distribution width; PT, prothrombin time; WHO, World Health Organization.
|
PMC9058072
|
fcvm-09-814557-g002.jpg
|
0.411201 |
a58daaabbe3246cb811f786f102595da
|
The ROC curves of significant predictors. NT-proBNP, N-terminal brain natriuretic peptide; PASP, pulmonary artery systolic pressure; ALB, albumin.
|
PMC9058072
|
fcvm-09-814557-g003.jpg
|
0.541752 |
46bb342164e2476799861e9a7efdfc69
|
Schematic figure of the (a) Model A and (b) Model B versions of vertical diffusion cell.
|
PMC9058821
|
gr1.jpg
|
0.491779 |
90c96a6766bc4a9b8f6902a41d7191b1
|
Schematic illustration for comparison of (a) Franz cell apparatus and (b) the novel modified vertical diffusion cell apparatus.
|
PMC9058821
|
gr2.jpg
|
0.468305 |
f21a1d3b4d79418a93216eca5ab96edb
|
Three-dimensional views of various constructions of modified vertical diffusion cell ((a) Model A, (c) Model B) and technical drawings of these devices ((b) Model A, (d) Model B).
|
PMC9058821
|
gr3.jpg
|
0.460014 |
ef17522746bb49cab68b77f472b9568d
|
Photo about ‘Model A’ version of the modified vertical diffusion cell. The inset shows in more detail what is the right combination of the donor (A1) and the acceptor (D8) compartments. The figure also shows the essential parts of cell: donor chamber (A), membrane (B1), sample (B2), silicone insert (B3), glass plate or cover plate (B4) stainless steel ball joint clip (C), acceptor chamber (D1), sampling inlet (D2), second overflow inlet (D3), second inlet tap (D4), first inlet (D5), first inlet tap (D6), ground inlet (D7), spherical edge of the acceptor chamber (D8), magnetic stirrer bar (E), Hamilton syringe (F), drip funnel (buffer tank) (G1), glass tap (G2).
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PMC9058821
|
gr4.jpg
|
0.428323 |
2ea573814e234956b2ef68bf1fc40ca8
|
Schematic figure of operational system which contains the necessary main background instruments: double-walled vessel (H), sealed cap (I), temperature control thermocouple (O1), heated magnetic stirrer (O2), primary tempering fluid in baker, peristaltic pump (O3).
|
PMC9058821
|
gr5.jpg
|
0.464202 |
9dc4c1791cb749ca95512fbbae9101d8
|
Bland-Altman plot for inter-rater reliability analysis of each acetabulum location. The limits of agreement are shown as dotted, black lines with 95% confidence intervals (green and red areas), bias (as dotted black line) with 95% confidence intervals (blue area), and regression fit of the differences of the means (as solid black line). (a) Medial wall. (b) Posterior wall. (c) Superior wall. (d) Anterior wall.
|
PMC9059077
|
fx1.jpg
|
0.417251 |
d73eb2dad8804428ae9a49b2f9fda852
|
Postoperative coronal computed tomography image of the hip joint. The axial image was sliced at the center of the head.
|
PMC9059077
|
gr1.jpg
|
0.416695 |
1cf903fe1e9e434f811dc0363ee4e4c5
|
Preoperative axial computed tomography image of the hip joint. Image is at the same level as the postoperative image and sliced at the center of the head. Anterior, posterior, and medial walls were measured with the maximum elliptic mean value and did not include the cortex. The measurement of the medial wall was taken at the bisector of the anterior-posterior diameter of the acetabulum without a double floor.
|
PMC9059077
|
gr2.jpg
|
0.428385 |
e3e531ed23174c5a9c3eda0ec7a21b26
|
Maximum elliptic mean. In the superior wall, the coronal image at the center of the medial wall was used to measure the maximum elliptic mean without the cortical bone.
|
PMC9059077
|
gr3.jpg
|
0.458431 |
f649cca14cb34207bd431dc488fb19b3
|
Scatter plot of reliability at each region of the acetabulum. The plot shows inter-rater reliability assessed at the (a) superior, (b) anterior, (c) posterior, and (d) medial walls.
|
PMC9059077
|
gr4.jpg
|
0.431432 |
3f866fd5f6994048817bff0384b40828
|
Tripodal molecules 1a–4b.
|
PMC9059549
|
c8ra06647g-f1.jpg
|
0.476602 |
69fd53d9ff65462ca66fe57d490de548
|
Partial 1H NMR spectra of L1, 1a and 1b in d6-DMSO solvent.
|
PMC9059549
|
c8ra06647g-f2.jpg
|
0.416177 |
a4e780319ba14eac87c73ef6abda5954
|
The relative 1H-NMR chemical shift (in ppm) of H4–H7 protons (Mol = 1a–4b and L = L1–L4).
|
PMC9059549
|
c8ra06647g-f3.jpg
|
0.479801 |
8e8de04356c84879a0129e9ef2967212
|
Molecular structures of 1a, 1b, 2a and 2b evaluated at MPW1PW91/6-311+G(d,p) level of theory and basis function showing the cyclic benzene trimer (CBT) between three benzene rings of benzimidazolyl units.
|
PMC9059549
|
c8ra06647g-f4.jpg
|
0.422471 |
f72f68a76f5a40bb935925f50e1e3d83
|
MESP topography distribution of 1a, 1b, 2a and 2b evaluated at MPW1PW91/6-311+G(d,p) level of theory and basis set. The consecutive contours are separated by 0.02 a.u.
|
PMC9059549
|
c8ra06647g-f5.jpg
|
0.399157 |
9939cfcde7f24c08a92cd53c47dd3c27
|
The substitutions of nonstructural proteins during the five waves of SARS-CoV2 pandemic in Iran.
|
PMC9060343
|
pone.0267847.g001.jpg
|
0.429616 |
9f9de0d38ceb4c2cab084317e0c80f1f
|
Phylogenetic tree of SARS-CoV2 full-length genomes constructed by MEGA 7.The Neighbor joining method was used with 1,000 bootstrap replicates. The tree contains 54 SARS-CoV2 sequences of these study compared to the reference sequence from GISAID and some other sequences from each clade. In this tree the reference sequence is marked by white circle and sequences of this study were marked as follow: The 1st wave black circle, the 2nd wave inverted black triangle, the 3rd wave with black square, the 4th wave with black triangle and the 5th wave with black diamond.
|
PMC9060343
|
pone.0267847.g002.jpg
|
0.433668 |
afd72e90c6354a07a199feb533a1cf3c
|
Synthesis of a series of 1,2-bis(N-alkylimidazolium)ethane BF4− salts.
|
PMC9060431
|
c8ra09208g-f1.jpg
|
0.445908 |
0beab14082b54dea81d3a5fac4ba840b
|
500 MHz 1H NMR spectrum of C8 in acetone-d6.
|
PMC9060431
|
c8ra09208g-f2.jpg
|
0.539057 |
0ca8311c85c74edead749abd98d1e431
|
Relationship between the side-chain length and melting temperature/first solid–solid phase transition temperature for the synthesized dicationic imidazolium BF4− salts.
|
PMC9060431
|
c8ra09208g-f3.jpg
|
0.480821 |
b66546a5bd624663a80860c266505415
|
DSC thermograms of C6 (blue) and C7 (red) (2nd heating scans, heating rate = 10 K min−1, N2).
|
PMC9060431
|
c8ra09208g-f4.jpg
|
0.449368 |
46a8f762fc024c4abb4e4b60e9aa1570
|
DSC thermograms of C11 (blue) and C12 (red) (2nd heating scans, heating rate = 10 K min−1, N2). The small Tm peaks of C11 and C12 correspond to the small ΔSf values: 18 and 17 J K−1 mol−1, respectively.
|
PMC9060431
|
c8ra09208g-f5.jpg
|
0.390002 |
a355f0cad15d46f69613daf5239cff6c
|
POM images of (a–d) C6 and (e–h) C7 during cooling from their isotropic phases: (a) plastic crystal phase at 100 °C, (b) dark domains aligned at 80 °C before the solid–solid phase transition, (c) plastic crystal phase cooled to room temperature, and (d) crystalline texture after slow crystallization at room temperature. For C7: (e) plastic crystal phase at 150 °C, (f) dark domains aligned at 100 °C, (g) undulated pattern in the lower phase at 50 °C, and (h) cracked crystalline texture at room temperature. All scale bars correspond to 200 μm.
|
PMC9060431
|
c8ra09208g-f6.jpg
|
0.423126 |
de07b3807614413586573521d526997f
|
POM images of C12 during cooling from its isotropic phase: (a) at 200 °C, (b) at 150 °C, (c) at room temperature. All scale bars correspond to 200 μm.
|
PMC9060431
|
c8ra09208g-f7.jpg
|
0.433119 |
ad5236417fd043cbb6c46ba423a53aaa
|
1D wide-angle X-ray scattering spectra of (a) the plastic crystal C7 and (b) the liquid crystal C12 at different temperatures.
|
PMC9060431
|
c8ra09208g-f8.jpg
|
0.45312 |
8fae54621ee24f3ab9a36c164a251c43
|
Ionic conductivity (left axis) as a function of temperature while cooling combined with DSC cooling traces (right axis) for (a) C6 and (b) C11.
|
PMC9060431
|
c8ra09208g-f9.jpg
|
0.527817 |
300ab1a0dc664fef90b2cc1ffb663b3d
|
Comparison of patient satisfaction between the two groups.
|
PMC9060996
|
CMMM2022-4820090.001.jpg
|
0.494647 |
fdca8e2cb63e48cfbed5ea6667340b87
|
The concentric cell (BLM) for transport experiments (a relatively thick layer of immiscible fluid is used to separate the source and receiving phases).
|
PMC9062073
|
c8ra09118h-f1.jpg
|
0.5735 |
b4833f0594834716b8d6f58d861ea8be
|
Displacement ellipsoid plot (50% probability) and atom-numbering scheme for PTC. The H atoms are drawn as small spheres of arbitrary radii. Selected bond lengths (Å) are P1–O1 = 1.4718(16), P1–N1 = 1.7306(19), P1–N2 = 1.616(2) and P1–N3 = 1.615(2), and selected bond angles (°) are O1–P1–N1 = 103.29(9), O1–P1–N2 = 116.39(9), O1–P1–N3 = 116.53(10), N1–P1–N2 = 109.35(10), N1–P1–N3 = 107.28(10) and N2–P1–N3 = 103.66(10).
|
PMC9062073
|
c8ra09118h-f2.jpg
|
0.438626 |
54e07f502b984f6184dc0bcb37881f08
|
A view of one-dimensional array of molecules, built from NH⋯O hydrogen bonds. The weakly occupied atoms and hydrogen atoms not involved in hydrogen bonding were omitted for the sake of clarity.
|
PMC9062073
|
c8ra09118h-f3.jpg
|
0.496434 |
5eca9c6aca344ac6af52cd6b7aee0976
|
The possible tautomeric equilibrium in solution.
|
PMC9062073
|
c8ra09118h-f4.jpg
|
0.441593 |
b92bc9e424f34691a36c5ec2bd3e3911
|
Transport percentages for seven metal cations by PTC carrier in different organic solvents.
|
PMC9062073
|
c8ra09118h-f5.jpg
|
0.397876 |
536bbc4935e54c5092bd34cc06472a27
|
Molar conductance–mole ratio plots for the PTC–Cu(ii) complex in NB at different temperatures.
|
PMC9062073
|
c8ra09118h-f6.jpg
|
0.453798 |
539246d95c9d4e8d9864826dac44f6b0
|
Profiling gene expression and genomic accessibility in the plastic and fate-restricted RPE. The developing (dev.) eye at E4 (A) and posterior eye at E5 (B) are shown with RPE and neuroepithelium (NE; presumptive neural retina) labeled. A regenerating NE is observed 3 days PR if treated with FGF2 at E4 (C), but no regeneration is observed 3 days PR and FGF2 treatment at E5 (D). At 3 days PR, no regeneration is observed if surgery is performed at E4 (E) or E5 (F) in the absence of FGF2. Scale bars in (A–F) are each 200 μm. Asterisk (*) denotes the FGF2 bead. (G) Schematic summarizes the collection of RNA-seq and ATAC-seq samples used in this study. (H) Principal component analysis summarizes the variation present in RNA-seq normalized gene expression values across 18 samples and six tested conditions. (I) Heatmap displays blind hierarchical clustering of normalized ATAC-seq peak signal for each sample.
|
PMC9062105
|
fcell-10-875155-g001.jpg
|
0.460296 |
4063b66cd12a4283b9a34c82f4a5cfd3
|
Clustering of differentially expressed genes reveals expression programs associated with RPE commitment and reprogramming. (A) Affinity propagation clustering was performed on all genes that are differentially expressed across the E4 to E5 window by the criteria |LFC| ≥ 1 and adj. p-value ≤ 0.05 (n = 2551), resulting in six clusters. Key genes are summarized on the right of heatmap. The heatmap intensity displays row-normalized gene counts. (B) Bubble charts display select gene ontology terms associated with each cluster. Adj. p-value is plotted on y-axis and the bubble size is proportional to number of terms identified in the analysis.
|
PMC9062105
|
fcell-10-875155-g002.jpg
|
0.497795 |
1972eeb4e5d245c59efa71a03dacbc91
|
Neural retina identity genes are active 6hPR + FGF2 at E4 and E5. Genome browser views display the VSX2
(A) and SIX6
(B) loci, with the normalized counts for ATAC-seq and RNA-seq assays summarized in the coverage tracks above. The highlighted pink area represents changes in promoter-region accessibility. Normalized gene expression counts are displayed for neural retina-associated genes PAX6
(C)
LHX2
(D) and ASCL1
(E). The y-axes are log-transformed. Asterisk (*) denotes an Adj. p-value ≤ 0.05. n.s., not significant. (F) Two representative RPE explants are shown after 48 h in culture in the presence of FGF2 at E4 (left) or E5 (right). Red arrows point to RPE-derived neural retina from E4 explants. (G) Gene expression was measured via RT-qPCR using explants cultured in the presence of FGF2 at E4 or E5 and collected at the specified time points. Bar chart displays the average expression, and the error bars represent standard error of the treatment mean based on ANOVA. Each dataset is normalized to basal levels observed at time 0; y-axes are log2-transformed. qPCR significance: n.s. denotes not significant, * denotes p-value < 0.05, ** denotes p-value < 0.01, *** denotes p-value < 0.001.
|
PMC9062105
|
fcell-10-875155-g003.jpg
|
0.490809 |
88c6dfe2d7974381ba8692be9f8bf51f
|
Proliferation is tightly regulated across the window of RPE cell fate restriction. (A) EdU and DAPI fluorescence staining of embryo sections collected 24 h PR (24hPR) and FGF2 treatment was performed at either E4 (A) or E5 (B). Fluorescence channels are overlayed with differential interference contrast (DIC) image. 50 μm scale bar in (A) applies to both panels. Chart displays the proportion of EdU positive RPE cells observed 24hPR + FGF2 at E4 and E5 (C). Diamond represents mean proportion; asterisk (*) denotes Adj. p value <0.05. (D) Gene set enrichment analysis (GSEA) was performed on normalized RNA-seq expression values from 6hPR + FGF2 E4 and E5 samples. A low normalized enrichment score (NES = −3.4349458) for E2F targets indicates high enrichment in the E4 6hPR + FGF2 RPE and depletion from the E5 6hPR + FGF2 RPE. Each black vertical bar represents a gene in the pathway. (E) The row-normalized heatmap displays RNA-seq expression values for E2F targets genes and proliferation-associated factors. (F) RT-qPCR was used to measure E2F1 expression in E4 and E5 explants cultured in the presence of FGF2 and collected at the specified time points. Bar chart displays the average expression value, and the error bars represent standard error of the treatment mean based on ANOVA. Each dataset is normalized to basal levels observed at time 0; y-axes are log2-transformed. qPCR significance: n.s. denotes not significant, * denotes p-value < 0.05, ** denotes p-value < 0.01, *** denotes p-value < 0.001.
|
PMC9062105
|
fcell-10-875155-g004.jpg
|
0.421058 |
00af08b26d5f446394ab790099b27fad
|
Gene signatures associated with RPE maturation are broadly elevated in the E5 RPE. Normalized RNA-seq expression values are displayed for genes encoding RPE-associated transcription factors (A), the ion channel BEST1
(B), retinol metabolism and transport factors (C), melanin synthesis machinery (D), and melanosome-associated proteins (E). For (A–E), asterisk (*) denotes an Adj. p-value ≤ 0.05 and n.s., not significant. Relative gene expression was measured in RPE explants using RT-qPCR, and is displayed for OTX2
(F), MITF
(G), RPE65
(H), and TYR
(I). Bar chart displays the average expression, and the error bars represent standard error of the treatment mean based on ANOVA. Each dataset is normalized to basal levels observed at time 0; y-axes are log2-transformed. qPCR significance: n.s. denotes not significant, * denotes p-value < 0.05, ** denotes p-value < 0.01, *** denotes p-value < 0.001.
|
PMC9062105
|
fcell-10-875155-g005.jpg
|
0.433335 |
2838d38512364273ad5b292bb2ec0a42
|
RPE maturation is accompanied by differential accessibility at retinal development genes and homeobox transcription factor binding sites. (A) Venn diagram summarizes the overlap of up-regulated DARs (DARs with increased E5 accessibility) between the developing and 6hPR + FGF2 conditions, defined by a cut-off of Adj. p-value ≤ 0.05. (B) Similarly, Venn diagram displays down-regulated DARs (E4-enriched DARs) for the two conditions. DARs unique to either condition were annotated to the nearest gene TSS within 10 kilobases, and pathway enrichment analysis was performed for DARs enriched in the developing E5 RPE (C), the E5 6hPR + FGF2 RPE (D), the developing E4 RPE (E), or the E4 6hPR + FGF2 RPE (F). (G) The log fold change (LFC) of differentially accessible peak summits between the E4 and E5 conditions are plotted. Dashed lines represent a LFC cut-off of 1 that was used to select summits for motif analysis. HOMER motif detection software was used to identify transcription factor DNA motifs overrepresented in the summits of peaks differentially accessible across the developing (H) or 6hPR + FGF2 (I) RPE, and the top 15 enriched motifs are shown.
|
PMC9062105
|
fcell-10-875155-g006.jpg
|
0.485006 |
f82ce83f9e6642e98e2ab296416d89a4
|
Overrepresented motifs in open regions of the E4/E5 RPE. The monaLisa motif analysis software was used to bin differentially accessible summits by accessibility across the E4 and E5 conditions. Each bin was analyzed for the overrepresentation of transcription factor motifs found in the JASPAR 2022 database. Enriched motifs identified at −log(p-Adj.) >3 in any bin were recorded and select factors associated with the developing RPE (A) or 6hPR + FGF2 (B) samples were plotted. (C) Genome browser displays ATAC-signal proximal to DARs containing the OTX2 binding motif. The region of interest is highlighted in pink and associated motifs are summarized below the track.
|
PMC9062105
|
fcell-10-875155-g007.jpg
|
0.383984 |
5da69b21807e42b88f0eb4319a14c9d8
|
Final thematic map.
|
PMC9062181
|
fpsyg-13-859240-g001.jpg
|
0.42157 |
ddc7295af2b746b9bf41325f5a8a687e
|
Phylogenetic tree showing the relationship among nitrogen fixing, phosphorus and potassium solubilizing bacterial isolates, 16S rRNA gene sequences with reference sequences obtained through BLAST analysis. The trees were constructed using neighbor joining (NJ) with algorithm using MEGA 4 software (Tamura et al., 2007).
|
PMC9062246
|
gr1.jpg
|
0.417003 |
bc8f86e5b40c47b6a032e70a15161944
|
Study design, patient selection and evaluation. ICU, intensive care unit.
|
PMC9062462
|
bmjopen-2021-051971f01.jpg
|
0.361355 |
1f4196bee0b2413e9a4ee869b04eadbb
|
Results of global coagulation tests (gb and hSonoclot) in the low flow (N=11), high flow (n=34) and invasive ventilation (n=29) oxygen requiring subgroups. Presence of heparin-like effect (HLE) as defined as difference in Sonoclot trace at days 1, 3 in patients. The prevalence of HLE and changes in Sonoclot test was assessed as per oxygen requirement and survival (A–F).
|
PMC9062462
|
bmjopen-2021-051971f02.jpg
|
0.376933 |
3dbb78a4feaf4c92a91a6e774b99b2b0
|
Kaplan-Meir survival curves for patients (A—oxygen groups; B—presence of heparin-like effect).
|
PMC9062462
|
bmjopen-2021-051971f03.jpg
|
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