cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.15468/dl.t9xn6t
title: Occurrence Download

description: A dataset containing 692 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Country is one of (China, Mongolia)",
 "HasCoordinate is true",
 "HasGeospatialIssue is false",
 "OccurrenceStatus is Present",
 "TaxonKey is Epilobium palustre"
 ]
}

 The dataset includes 692 records from 17 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0006569-250914085247600/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.5281/zenodo.17084362
title: Dataset for the paper "Parametric Nonlinear Volterra Series via Machine Learning: Transonic Aerodynamics"

description: This dataset provides high-fidelity Computational Fluid Dynamics (CFD) simulations used in:G. Immordino, A. Da Ronch, and M. Righi. "Parametric Nonlinear Volterra Series via Machine Learning: Transonic Aerodynamics." Journal of Aircraft, 2025.https://arc.aiaa.org/doi/abs/10.2514/1.C038288

The datasets support the identification and validation of linear and nonlinear Volterra series kernels for unsteady transonic aerodynamics.





NACA0012 Airfoil (2D case):





Generated using SU2 v7.5.0 with the Unsteady RANS (URANS) formulation and Spalart–Allmaras turbulence model (negative production option active).




Structured O–mesh with ~177k elements; y+≈1; domain extended to 100 chords.




Simulations employed Δτ=0.15 over a total nondimensional time of 113.6.




Step responses were induced by plunge motions of −1 m/s and −2 m/s, covering Mach numbers M=[0.58 , 0.76] and angles of attack AoA=[0 , 7] deg.




Output includes time-resolved lift and pitching moment coefficients (CL , CM).






Benchmark Supercritical Wing – BSCW (3D case):





Semi–span wing configuration from the AIAA Aeroelastic Prediction Workshop, simulated using SU2 v7.5.0 URANS.




Mixed grid with 15.6M elements (structured near wing and boundary layer, voxelised in the farfield); y+≈1.




Nondimensional timestep 0.029; total nondimensional time =27.2.




Pitch step responses with amplitudes of 1 deg and 2 deg, spanning Mach numbers M=[0.70 , 0.84] and angles of attack AoA=[0 , 5] deg.




Dataset includes aerodynamic loads (CL , CM), with flow regimes covering attached flow, onset of shock-induced separation, and dynamic stall.





PurposeThe data enable reduced-order modelling of unsteady transonic aerodynamics through Volterra series expansions, and support studies in aeroelasticity, flutter prediction, and machine-learning–based surrogate modelling.

Contents





Step–response histories for multiple Mach–AoA combinations.




Linear and nonlinear excitation cases (small vs. large input amplitudes).



Keywords:Transonic aerodynamics, unsteady aerodynamics, Volterra series, reduced-order models, flutter, NACA0012, Benchmark Supercritical Wing, CFD, machine learning.
DOI: 10.5281/zenodo.17084361
title: Dataset for the paper "Parametric Nonlinear Volterra Series via Machine Learning: Transonic Aerodynamics"

description: This dataset provides high-fidelity Computational Fluid Dynamics (CFD) simulations used in:G. Immordino, A. Da Ronch, and M. Righi. "Parametric Nonlinear Volterra Series via Machine Learning: Transonic Aerodynamics." Journal of Aircraft, 2025.https://arc.aiaa.org/doi/abs/10.2514/1.C038288

The datasets support the identification and validation of linear and nonlinear Volterra series kernels for unsteady transonic aerodynamics.





NACA0012 Airfoil (2D case):





Generated using SU2 v7.5.0 with the Unsteady RANS (URANS) formulation and Spalart–Allmaras turbulence model (negative production option active).




Structured O–mesh with ~177k elements; y+≈1; domain extended to 100 chords.




Simulations employed Δτ=0.15 over a total nondimensional time of 113.6.




Step responses were induced by plunge motions of −1 m/s and −2 m/s, covering Mach numbers M=[0.58 , 0.76] and angles of attack AoA=[0 , 7] deg.




Output includes time-resolved lift and pitching moment coefficients (CL , CM).






Benchmark Supercritical Wing – BSCW (3D case):





Semi–span wing configuration from the AIAA Aeroelastic Prediction Workshop, simulated using SU2 v7.5.0 URANS.




Mixed grid with 15.6M elements (structured near wing and boundary layer, voxelised in the farfield); y+≈1.




Nondimensional timestep 0.029; total nondimensional time =27.2.




Pitch step responses with amplitudes of 1 deg and 2 deg, spanning Mach numbers M=[0.70 , 0.84] and angles of attack AoA=[0 , 5] deg.




Dataset includes aerodynamic loads (CL , CM), with flow regimes covering attached flow, onset of shock-induced separation, and dynamic stall.





PurposeThe data enable reduced-order modelling of unsteady transonic aerodynamics through Volterra series expansions, and support studies in aeroelasticity, flutter prediction, and machine-learning–based surrogate modelling.

Contents





Step–response histories for multiple Mach–AoA combinations.




Linear and nonlinear excitation cases (small vs. large input amplitudes).



Keywords:Transonic aerodynamics, unsteady aerodynamics, Volterra series, reduced-order models, flutter, NACA0012, Benchmark Supercritical Wing, CFD, machine learning.
DOI: 10.5281/zenodo.15155105
title: Table 2 in Efficacy of Doob grass, Cynodon dactylon against white spot syndrome virus in Penaeus monodon

description: Table 2: Cumulative mortality percentage (%) of control feed and treatments feeds i.e., RAV-S 15% and RAV-S 20% fed group of shrimps in cage trial. The feed was produced at 800 C. The data shows that treatment feed was effective against WSSV.
TreatmentPondCage replicate sshrimps (n)DPI 1DPI 2DPI 3DPI 4DPI 5DPI 6DPI 7DPI 8DPI 9DPI 10DPI 11No. of Dead shrimpNo. of live shrimpSurvival rate percentageAverage SR percentageNegativecontrol114000000000000040100100,002400000000000004010034000000000000040100RAV-S15%214000000000000040100100,002400000000000004010034000000000000040100RAV-S20%314000000000000040100100,002400000000000004010034000000000000040100Positivecontrol7140001630160000040000,00240000069171228804000340001210312520004000
description: Published as part of Jha, Rajeev Kumar, Wisoyo, Soy Daniel & Srisombat, Sarayut, 2021, Efficacy of Doob grass, Cynodon dactylon against white spot syndrome virus in Penaeus monodon, pp. 111 in International Journal of Fisheries and Aquatic Studies 9 (1) on page 111, DOI: 10.22271/fish.2021.v9.i1b.2391, http://zenodo.org/record/12550415
DOI: 10.5281/zenodo.15155106
title: Table 2 in Efficacy of Doob grass, Cynodon dactylon against white spot syndrome virus in Penaeus monodon

description: Table 2: Cumulative mortality percentage (%) of control feed and treatments feeds i.e., RAV-S 15% and RAV-S 20% fed group of shrimps in cage trial. The feed was produced at 800 C. The data shows that treatment feed was effective against WSSV.
TreatmentPondCage replicate sshrimps (n)DPI 1DPI 2DPI 3DPI 4DPI 5DPI 6DPI 7DPI 8DPI 9DPI 10DPI 11No. of Dead shrimpNo. of live shrimpSurvival rate percentageAverage SR percentageNegativecontrol114000000000000040100100,002400000000000004010034000000000000040100RAV-S15%214000000000000040100100,002400000000000004010034000000000000040100RAV-S20%314000000000000040100100,002400000000000004010034000000000000040100Positivecontrol7140001630160000040000,00240000069171228804000340001210312520004000
description: Published as part of Jha, Rajeev Kumar, Wisoyo, Soy Daniel & Srisombat, Sarayut, 2021, Efficacy of Doob grass, Cynodon dactylon against white spot syndrome virus in Penaeus monodon, pp. 111 in International Journal of Fisheries and Aquatic Studies 9 (1) on page 111, DOI: 10.22271/fish.2021.v9.i1b.2391, http://zenodo.org/record/12550415
DOI: 10.5281/zenodo.15155107
title: Table 1 in Chemical and genomic diversity of six Lonicera species occurring in Korea

description: Table 1 Statistics of WGS and assembly summary for six Lonicera species.
FeatureL. insularisL. sachalinensisL. praeflorensL. maackiiL. vesicariaL. japonicaSequencing informationNo. of raw read4,941,3344,764,7384,342,7424,920,9265,596,0646,308,194No. of trimmed read4,662,5404,339,1264,024,3384,640,6484,712,1505,029,201No. of trimmed bases1,211,552,5061,098,408,0651,040,146,8821,188,483,7751,164,886,3211,178,414,508Chloroplast genomeAverage read depth634.83214.83165.39784.00134.00668.84Genome size (bp)155,124155,123154,892155,318155,182155,060Large single copy88,23088,22988,35389,20289,09688,853Small single copy18,77418,77418,92918,68018,61218,653Inverted repeat24,06024,06023,80523,71823,73723,777Number of genes114114114114113109Protein-coding genes808080807977Structure RNAs343434343432GC contents (%)38.3538.3438.3138.4738.3938.59GenBank acc. no.MH028739MH028742MH028740MH028741MH028743MH028738
description: Published as part of Kang, Kyo Bin, Kang, Shin-Jae, Kim, Mi Song, Lee, Dong Young, Han, Sang Il, Kim, Tae Bum, Park, Jee Young, Kim, Jinwoong, Yang, Tae-Jin & Sung, Sang Hyun, 2018, Chemical and genomic diversity of six Lonicera species occurring in Korea, pp. 128 in Phytochemistry 155 on page 128, DOI: 10.1016/j.phytochem.2018.07.012, http://zenodo.org/record/10484355
DOI: 10.5281/zenodo.15155108
title: Table 1 in Chemical and genomic diversity of six Lonicera species occurring in Korea

description: Table 1 Statistics of WGS and assembly summary for six Lonicera species.
FeatureL. insularisL. sachalinensisL. praeflorensL. maackiiL. vesicariaL. japonicaSequencing informationNo. of raw read4,941,3344,764,7384,342,7424,920,9265,596,0646,308,194No. of trimmed read4,662,5404,339,1264,024,3384,640,6484,712,1505,029,201No. of trimmed bases1,211,552,5061,098,408,0651,040,146,8821,188,483,7751,164,886,3211,178,414,508Chloroplast genomeAverage read depth634.83214.83165.39784.00134.00668.84Genome size (bp)155,124155,123154,892155,318155,182155,060Large single copy88,23088,22988,35389,20289,09688,853Small single copy18,77418,77418,92918,68018,61218,653Inverted repeat24,06024,06023,80523,71823,73723,777Number of genes114114114114113109Protein-coding genes808080807977Structure RNAs343434343432GC contents (%)38.3538.3438.3138.4738.3938.59GenBank acc. no.MH028739MH028742MH028740MH028741MH028743MH028738
description: Published as part of Kang, Kyo Bin, Kang, Shin-Jae, Kim, Mi Song, Lee, Dong Young, Han, Sang Il, Kim, Tae Bum, Park, Jee Young, Kim, Jinwoong, Yang, Tae-Jin & Sung, Sang Hyun, 2018, Chemical and genomic diversity of six Lonicera species occurring in Korea, pp. 128 in Phytochemistry 155 on page 128, DOI: 10.1016/j.phytochem.2018.07.012, http://zenodo.org/record/10484355
DOI: 10.5281/zenodo.15155109
title: Table 2 in Chemical and genomic diversity of six Lonicera species occurring in Korea

description: Table 2 Summary of SNPs and InDels found in chloroplast genomes among the six Lonicera species.
SpeciesIndelLiLsLpLmLvLjSNPLi/5246153247278Ls17/246156245277Lp14501439/227235271Lm7547431426/223266Lv1550153914461490/268Lj19641953207219582261/
The upper triangle shows the number of indel, while the lower triangle indicates the total nucleotide substitutions Abbreviations: Li, L. insularis; Ls, L. sachalinensis; Lp, L. praeflorens; Lm, L. maackii; Lv, L. vesicaria; Lj, L. japonica.
description: Published as part of Kang, Kyo Bin, Kang, Shin-Jae, Kim, Mi Song, Lee, Dong Young, Han, Sang Il, Kim, Tae Bum, Park, Jee Young, Kim, Jinwoong, Yang, Tae-Jin & Sung, Sang Hyun, 2018, Chemical and genomic diversity of six Lonicera species occurring in Korea, pp. 128 in Phytochemistry 155 on page 128, DOI: 10.1016/j.phytochem.2018.07.012, http://zenodo.org/record/10484355
DOI: 10.5281/zenodo.15155110
title: Table 2 in Chemical and genomic diversity of six Lonicera species occurring in Korea

description: Table 2 Summary of SNPs and InDels found in chloroplast genomes among the six Lonicera species.
SpeciesIndelLiLsLpLmLvLjSNPLi/5246153247278Ls17/246156245277Lp14501439/227235271Lm7547431426/223266Lv1550153914461490/268Lj19641953207219582261/
The upper triangle shows the number of indel, while the lower triangle indicates the total nucleotide substitutions Abbreviations: Li, L. insularis; Ls, L. sachalinensis; Lp, L. praeflorens; Lm, L. maackii; Lv, L. vesicaria; Lj, L. japonica.
description: Published as part of Kang, Kyo Bin, Kang, Shin-Jae, Kim, Mi Song, Lee, Dong Young, Han, Sang Il, Kim, Tae Bum, Park, Jee Young, Kim, Jinwoong, Yang, Tae-Jin & Sung, Sang Hyun, 2018, Chemical and genomic diversity of six Lonicera species occurring in Korea, pp. 128 in Phytochemistry 155 on page 128, DOI: 10.1016/j.phytochem.2018.07.012, http://zenodo.org/record/10484355
DOI: 10.5281/zenodo.15155115
title: TABLE 2. Different nucleotide bases between Colletotrichum paridis, C in Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis

description: TABLE 2. Different nucleotide bases between Colletotrichum paridis, C. jinshuiense and Colletotrichum sp. strain CGMCC 3.15172 at different gene loci.
Base (bp) SpeciesStrainITSactgapdhtub2chs-1his3SummaryLiterature citedC. paridisBCTJB1*CheckCheckCheckCheckCheckCheckCheckThis studyC. paridisBCTJB20000000This studyC. paridisBCTJB30000101This studyC. paridisBCTJB40000101This studyC. jinshuiensePAFQ26*02 (2gaps)603…11(Fu et al. 2019a)C. jinshuiensePAFQ26a01 (1gap)603 (1gap)…10(Fu et al. 2019a)C. jinshuiensePAFQ26b01 (1gap)603 (1gap)…10(Fu et al. 2019a)C. jinshuiensePAFQ26c0…603 (1gap)…9(Fu et al. 2019a)C. jinshuiensePAFQ26d01 (1gap)603…10(Fu et al. 2019a)C. jinshuienseKCTC 46679*008 (1gap)44218(Lee & Jung 2018)C. jinshuienseKCTC 46680008 (1gap)44218(Lee & Jung 2018)C. jinshuienseLC850900734216(Liu et al. 2022)C. jinshuienseEsH800831…12(Wang et al. 2023)C. jinshuienseEsH111 (1gap)0721…11(Wang et al. 2023)Colletotrichum sp.CGMCC 3.15172009 (2gaps)4 (1gap)……13(Tao et al. 2013)
Note: Sequences generated in this study are indicated in bold; ex-type strains are marked with an asterisk (*); …, absent.
description: Published as part of Cui, Hua-Wei, Malik, Kamran, Xue, Long-Hai & Wei, Xue-Kai, 2024, Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis, pp. 181 in Phytotaxa 653 (2) on page 181, DOI: 10.11646/phytotaxa.653.2.6, http://zenodo.org/record/13216961
DOI: 10.5281/zenodo.15155116
title: TABLE 2. Different nucleotide bases between Colletotrichum paridis, C in Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis

description: TABLE 2. Different nucleotide bases between Colletotrichum paridis, C. jinshuiense and Colletotrichum sp. strain CGMCC 3.15172 at different gene loci.
Base (bp) SpeciesStrainITSactgapdhtub2chs-1his3SummaryLiterature citedC. paridisBCTJB1*CheckCheckCheckCheckCheckCheckCheckThis studyC. paridisBCTJB20000000This studyC. paridisBCTJB30000101This studyC. paridisBCTJB40000101This studyC. jinshuiensePAFQ26*02 (2gaps)603…11(Fu et al. 2019a)C. jinshuiensePAFQ26a01 (1gap)603 (1gap)…10(Fu et al. 2019a)C. jinshuiensePAFQ26b01 (1gap)603 (1gap)…10(Fu et al. 2019a)C. jinshuiensePAFQ26c0…603 (1gap)…9(Fu et al. 2019a)C. jinshuiensePAFQ26d01 (1gap)603…10(Fu et al. 2019a)C. jinshuienseKCTC 46679*008 (1gap)44218(Lee & Jung 2018)C. jinshuienseKCTC 46680008 (1gap)44218(Lee & Jung 2018)C. jinshuienseLC850900734216(Liu et al. 2022)C. jinshuienseEsH800831…12(Wang et al. 2023)C. jinshuienseEsH111 (1gap)0721…11(Wang et al. 2023)Colletotrichum sp.CGMCC 3.15172009 (2gaps)4 (1gap)……13(Tao et al. 2013)
Note: Sequences generated in this study are indicated in bold; ex-type strains are marked with an asterisk (*); …, absent.
description: Published as part of Cui, Hua-Wei, Malik, Kamran, Xue, Long-Hai & Wei, Xue-Kai, 2024, Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis, pp. 181 in Phytotaxa 653 (2) on page 181, DOI: 10.11646/phytotaxa.653.2.6, http://zenodo.org/record/13216961
DOI: 10.5281/zenodo.15155117
title: TABLE 3 in Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis

description: TABLE 3. Morphological characteristics of Colletotrichum paridis compared with C. jinshuiense.
Colony characters on PDAConidiaAppressoriaSetaeSpeciesStrain (Host)Colonial morphologyGrowth rate (mm/d)Size (μm); L/W ratioShapeSize (μm); L/W ratioShapeSeptateLength (μm)C. jinshuiensePAFQ26* PAFQ26a-d (Pyrus pyrifolia)Surface pale grey-black with white margin; reverse black to dark grey-green in center with white margin28 ℃: 5.6–5.7on host: 24.4–27.1 × 4; 6.1–6.8Curved, apex acute10.7 × 6; 1.8Ellipsoidal to clavate1–459–363C. jinshuiense (= C. kakivorum)KCTC 46679*, KCTC 46680 (Diospyrus kaki)Surface grey-olivaceous; reverse olivaceous-grey with smoke-grey concentric rings25 ℃: 3.3–3.5on SNA: 24 × 4; 6.0Curved, apex acute10.9 × 4.7; 2.3Clavate or ellipsoidal to slightly lobed3–677–125C. jinshuienseEsH8, EsH11 (Coptis chinensis)Surface white to pale grey; reverse yellowish to olive25 ℃: 5.6–5.8on host: 25.4 × 4.5; 5.6Curved, apex acute8.3 × 7.6; 1.1Globose or obovoid1–378–134C. paridisBCTJB1*, BCTJB2–4 (Paris polyphylla)Surface reddish-brown to black with a noticeable pink ring; reverse black with white to pink margin25 ℃: 5.8–6on PDA: 24.9 × 4.6; 5.4 on SNA: 27.5 × 4.7; 5.9Curved, apex acute10.2 × 6.5; 1.6Ellipsoidal to irregular1–451–193
description: Published as part of Cui, Hua-Wei, Malik, Kamran, Xue, Long-Hai & Wei, Xue-Kai, 2024, Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis, pp. 182 in Phytotaxa 653 (2) on page 182, DOI: 10.11646/phytotaxa.653.2.6, http://zenodo.org/record/13216961
DOI: 10.5281/zenodo.15155118
title: TABLE 3 in Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis

description: TABLE 3. Morphological characteristics of Colletotrichum paridis compared with C. jinshuiense.
Colony characters on PDAConidiaAppressoriaSetaeSpeciesStrain (Host)Colonial morphologyGrowth rate (mm/d)Size (μm); L/W ratioShapeSize (μm); L/W ratioShapeSeptateLength (μm)C. jinshuiensePAFQ26* PAFQ26a-d (Pyrus pyrifolia)Surface pale grey-black with white margin; reverse black to dark grey-green in center with white margin28 ℃: 5.6–5.7on host: 24.4–27.1 × 4; 6.1–6.8Curved, apex acute10.7 × 6; 1.8Ellipsoidal to clavate1–459–363C. jinshuiense (= C. kakivorum)KCTC 46679*, KCTC 46680 (Diospyrus kaki)Surface grey-olivaceous; reverse olivaceous-grey with smoke-grey concentric rings25 ℃: 3.3–3.5on SNA: 24 × 4; 6.0Curved, apex acute10.9 × 4.7; 2.3Clavate or ellipsoidal to slightly lobed3–677–125C. jinshuienseEsH8, EsH11 (Coptis chinensis)Surface white to pale grey; reverse yellowish to olive25 ℃: 5.6–5.8on host: 25.4 × 4.5; 5.6Curved, apex acute8.3 × 7.6; 1.1Globose or obovoid1–378–134C. paridisBCTJB1*, BCTJB2–4 (Paris polyphylla)Surface reddish-brown to black with a noticeable pink ring; reverse black with white to pink margin25 ℃: 5.8–6on PDA: 24.9 × 4.6; 5.4 on SNA: 27.5 × 4.7; 5.9Curved, apex acute10.2 × 6.5; 1.6Ellipsoidal to irregular1–451–193
description: Published as part of Cui, Hua-Wei, Malik, Kamran, Xue, Long-Hai & Wei, Xue-Kai, 2024, Colletotrichum paridis sp. nov., a novel endophytic species on Paris polyphylla var. chinensis, pp. 182 in Phytotaxa 653 (2) on page 182, DOI: 10.11646/phytotaxa.653.2.6, http://zenodo.org/record/13216961
DOI: 10.17894/ucph.1be72e03-0181-413c-a0f6-cd479afc309e
title: 3D whole body preclinical microCT database of subcutaneous tumors in mice with annotations from 3 annotators
DOI: 10.5281/zenodo.12805384
title: Snapgene files of the genetic constructions  for Morella thermoacetica used in Task 2.2 (Advanced GMO preparation for gas (CO2/CO/H2) fermentation process)

description: Part of WP2 these snapgene files of the genetic constructions  for Morella thermoacetica were used in Task 2.2 (Advanced GMO preparation for gas (CO2/CO/H2) fermentation process). The strains we were able to construct were:

1.- M. thermoacetica DSM 521 pK18ACSACassette complete2.- M. thermoacetica DSM 521 pK18ACSACassette AatA3.- M. thermoacetica DSM 2955 pK18ACSACassette PudL-AckA4.- M. thermoacetica DSM 2955 pK18ACSACassette AatA

To construct these strains CSIC used a modular synthetic construction carrying the regions up and down of the acsA gene to delete it. Within these regions, a gene cluster composed by the GmR, pduL, ackA and aatA genes, all of them controlled by the strong constitutional promoter of the glyceraldehyde 3-phosphate dehydrogenase gene from Moorella were inserted. The modular design of our recombinant cassette allows us to construct different cassettes with different gene combinations. In all cases, the acsA gene will be deleted and the acetate cannot be transformed back into acetyl-CoA:

Cassette 1.- ACSA-GmR-pduL-ackA-aatA-ACSA: this is a complete cassette which carries the genes encoding the phosphotransacetylase, the acetate kinase and the acetate exporter. This strain should accumulate a higher concentration of acetate inside the cell that should be exported to the medium.

Cassette 2.- ACSA-GmR-pduL-ackA-ACSA: this cassette lacks the transporter, so this strain should accumulate a higher concentration inside the cell. Then, the only way to prevent acetate toxicity is by increasing its own mechanisms to export this compound or by growing slower in order to manage acetate accumulation.

Cassette 3.- ACSA-GmR-aatA-ACSA: this cassette only carries the acetate exporter, so virtually all the acetate produced inside the cell should be exported. This is another strategy to increase the metabolic flux inside the cell towards acetate without overexpressing any other gene of the acetate pathway, and at the same time avoiding toxicity problems.

Cassette 4.- ACSA-GmR-ACSA: this cassette would generate an insertion mutant in which acsA is only replaced by the GmR encoding gene. This mutant should also generate a higher amount of acetate since it cannot be transformed back to acetyl-CoA.
DOI: 10.15468/dl.zmrrc6
title: Occurrence Download

description: A dataset containing 1356 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Country is Spain",
 "TaxonKey is Labrus merula Linnaeus, 1758",
 "Year 1901-2024"
 ]
}

 The dataset includes 1356 records from 14 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0034665-240626123714530/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.5281/zenodo.12805221
title: CO2SMOS Biogenic CO2 database

description: Public database with information about CO2 sources and CO2 stream characteristics (part of WP1/T.1.2 of CO2SMOS). Available also here: https://co2smos.eu/resources/?tab=Publications#1640255791646-3
DOI: 10.5281/zenodo.12805222
title: CO2SMOS Biogenic CO2 database

description: Public database with information about CO2 sources and CO2 stream characteristics (part of WP1/T.1.2 of CO2SMOS). Available also here: https://co2smos.eu/resources/?tab=Publications#1640255791646-3
DOI: 10.15468/dl.wt4enr
title: Occurrence Download

description: A dataset containing 16 species occurrences available in GBIF matching the query:
{
 "and" : [
 "Country is Spain",
 "TaxonKey is Squalus acanthias Linnaeus, 1758",
 "Year 1901-2024"
 ]
}

 The dataset includes 16 records from 5 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0034666-240626123714530/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.5523/bris.1r9fenp2jxcb52lf7fugrres4u
title: Data for "Raman Spectroscopic Stress Mapping of Single High Modulus Carbon Fibre Composite Fragmentation in Compression"

description: Data for paper "Raman Spectroscopic Stress Mapping of Single High Modulus Carbon Fibre Composite Fragmentation in Compression" published in Composites Science and Technology https://doi.org/10.1016/j.compscitech.2024.110721
DOI: 10.5281/zenodo.12805358
title: MET_results
DOI: 10.5281/zenodo.12805359
title: MET_results