cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.25714684
title: The role of semantically related gestures in the language comprehension of simultaneous interpreters in noise

description: Manual co-speech gestures can facilitate language comprehension, especially in adverse listening conditions. However, we do not know whether gestures influence simultaneous interpreters’ language comprehension in adverse listening conditions, and if so, whether this influence is modulated by interpreting experience, or by active simultaneous interpreting (SI). We exposed 24 interpreters and 24 bilinguals without interpreting experience to utterances with semantically related gestures, semantically unrelated gestures, or without gestures while engaging in comprehension (interpreters and bilinguals) or in SI (interpreters only). Tasks were administered in clear and noisy speech. Accuracy and reaction time were measured, and participants’ gaze was tracked. During comprehension, semantically related gestures facilitated both groups’ processing in noise. Facilitation was not modulated by interpreting experience. However, when interpreting noisy speech, interpreters did not benefit from gestures. This suggests that the comprehension component, and specifically crossmodal information processing, in SI differs from that of other language comprehension.
DOI: 10.6084/m9.figshare.25714684.v1
title: The role of semantically related gestures in the language comprehension of simultaneous interpreters in noise

description: Manual co-speech gestures can facilitate language comprehension, especially in adverse listening conditions. However, we do not know whether gestures influence simultaneous interpreters’ language comprehension in adverse listening conditions, and if so, whether this influence is modulated by interpreting experience, or by active simultaneous interpreting (SI). We exposed 24 interpreters and 24 bilinguals without interpreting experience to utterances with semantically related gestures, semantically unrelated gestures, or without gestures while engaging in comprehension (interpreters and bilinguals) or in SI (interpreters only). Tasks were administered in clear and noisy speech. Accuracy and reaction time were measured, and participants’ gaze was tracked. During comprehension, semantically related gestures facilitated both groups’ processing in noise. Facilitation was not modulated by interpreting experience. However, when interpreting noisy speech, interpreters did not benefit from gestures. This suggests that the comprehension component, and specifically crossmodal information processing, in SI differs from that of other language comprehension.
DOI: 10.6084/m9.figshare.26139169
title: <b>Archaean multi-stage magmatic underplating drove formation of continental nuclei in the North China Craton</b>

description: This dataset mainly includes the following sevent parts:<br>(1) LA-ICP-MS zircon U-Pb ages of Paleo-Neoarchaean granitoids from the Baishan nucleus, North China Craton (Supplementary Data 1);(2) Zircon SHRIMP U-Pb ages and O isotopes of Paleo-Neoarchaean granitoids from the Baishan nucleus, North China Craton (Supplementary Data 2);(3) Zircon Lu-Hf isotopic data of Paleo-Neoarchaean granitoids from the Baishan nucleus and standard materials (Supplementary Data 3);(4) Compilation of individual Archean zircon Hf isotopes from the North China Craton and other cratons (Supplementary Data 4);(5) Compilation of Archean zircon O isotopes from the North China Craton and other cratons (Supplementary Data 5);(6) Mean values of Archean zircon Hf isotopes from the North China Craton (Supplementary Data 6).(7) Major and trace element concentrations of 3.2-2.5 Ga potassic granites from the Baishan nucleus, North China Craton (Supplementary Data 7).
DOI: 10.6084/m9.figshare.26139169.v1
title: Supplementary Data 6.xlsx

description: Mean values of Archean zircon Hf isotopes from the North China Craton.
DOI: 10.34740/kaggle/dsv/8832974
title: World Weather Repository ( Daily Updating )
DOI: 10.6084/m9.figshare.25345399.v1
title: 20240305 Gray Figure S4 data

description: <b>FIG S4 Nickel sensitivity of an </b><b><i>E. coli</i></b><b> </b><b><i>rcnA</i></b><b> mutant. </b><i>E. coli</i> strains MG1655 and MJG2346 (MG1655 ∆<i>rcnA731</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium containing 0.2% glucose without micronutrients, supplemented with 0, 62.5, 125, 250, or 500 µM NiSO<sub>4</sub>, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 23 hours (n=3 experimental replicates, with 1-6 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345402
title: 20240305 Gray Figure S5 data

description: <b>FIG S5 An </b><b><i>E. coli</i></b><b> ∆</b><b><i>rclABC</i></b><b> mutant is completely inhibited by 300 µM HOSCN.</b> <i>E. coli</i> strains MG1655 and MJG0901 (MG1655 ∆<i>rclABC1</i>) were grown in MOPS minimal medium containing 0.2% glucose without micronutrients, supplemented or not with 300 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345402.v1
title: 20240305 Gray Figure S5 data

description: <b>FIG S5 An </b><b><i>E. coli</i></b><b> ∆</b><b><i>rclABC</i></b><b> mutant is completely inhibited by 300 µM HOSCN.</b> <i>E. coli</i> strains MG1655 and MJG0901 (MG1655 ∆<i>rclABC1</i>) were grown in MOPS minimal medium containing 0.2% glucose without micronutrients, supplemented or not with 300 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345405
title: 20240305 Gray Figure S6 data

description: FIG S6 Ability of transition metals (Cu, Zn, Ni) to oxidize TNB. Oxidation of 30 µM 2-nitro-5-thiobenzoic acid (TNB) in 10 mM HEPES-KOH (pH 7.4) by addition of 1 µM CuCl2, ZnSO4, or NiSO4 was measured by loss of absorbance at 412 nm (n=3 experimental replicates; error bars of 1 standard deviation). Asterisks indicate TNB concentrations significantly different from that of TNB with no metal added (one-way ANOVA with Dunnett’s multiple comparisons test; **** = P&lt;0.0001).
DOI: 10.6084/m9.figshare.25345405.v1
title: 20240305 Gray Figure S6 data

description: FIG S6 Ability of transition metals (Cu, Zn, Ni) to oxidize TNB. Oxidation of 30 µM 2-nitro-5-thiobenzoic acid (TNB) in 10 mM HEPES-KOH (pH 7.4) by addition of 1 µM CuCl2, ZnSO4, or NiSO4 was measured by loss of absorbance at 412 nm (n=3 experimental replicates; error bars of 1 standard deviation). Asterisks indicate TNB concentrations significantly different from that of TNB with no metal added (one-way ANOVA with Dunnett’s multiple comparisons test; **** = P&lt;0.0001).
DOI: 10.6084/m9.figshare.26076985
title: 20240621 Gray new Fig S5 data

description: <b>FIG S5 Casamino acids have minimal impact on HOSCN concentration under the media conditions used in this paper.</b> Phosphate-buffered saline (PBS), or MOPS 0.2% glucose without micronutrients (MOPS) containing 0.1% casamino acids (caa) and/or 400 µM HOSCN where indicated were diluted 1:20 into 40 µM 2-nitro-5-thiobenzoic acid (TNB)(n=3 experimental replicates; error bars of 1 standard deviation), then TNB concentrations were measured by absorbance at 412 nm.
DOI: 10.6084/m9.figshare.26076985.v1
title: 20240621 Gray new Fig S5 data

description: <b>FIG S5 Casamino acids have minimal impact on HOSCN concentration under the media conditions used in this paper.</b> Phosphate-buffered saline (PBS), or MOPS 0.2% glucose without micronutrients (MOPS) containing 0.1% casamino acids (caa) and/or 400 µM HOSCN where indicated were diluted 1:20 into 40 µM 2-nitro-5-thiobenzoic acid (TNB)(n=3 experimental replicates; error bars of 1 standard deviation), then TNB concentrations were measured by absorbance at 412 nm.
DOI: 10.6084/m9.figshare.25345378
title: 20240305 Gray Figure 8 data

description: FIG 8 Glutathione reductase is inhibited by nickel but not by HOSCN. Glutathione and thioredoxin reductase activity was measured in cell-free lysates of E. coli MG1655. Glutathione reductase assays (A-C) contained 50 mM HEPES-KOH buffer (pH 8), 1.2 mM oxidized glutathione, 600 µM DTNB, 350 µM NADPH, and thioredoxin reductase assays (D) contained 50 mM HEPES-KOH buffer (pH 8), 500 nM E. coli thioredoxin 1 (TrxA), 0.1 mg ml-1 bovine serum albumin, 500 µM DTNB, and 240 µM NADPH. Reactions also contained the indicated concentrations of NiSO4, polyP, and/or EDTA, and were started by addition of cell lysate (1.63-16.3 µg total protein). DTNB oxidation to TNB was measured over time, using the TNB extinction coefficient at 412 nm of 14100 M-1 cm-1, then specific activities were calculated as nmol GSH or TrxA reduced min-1 mg-1 total protein (n=3-6 experimental replicates; error bars of 1 standard deviation). HOSCN-oxidized lysates (used as indicated in B and D) were prepared by incubating cell lysate (3.26 mg ml-1 total protein) for 5 min at room temperature with 3 mM HOSCN, then quenching unreacted HOSCN with an equal volume of 2 mM TNB. Asterisks indicate activities significantly different from that of (A, B, and D) lysate with no NiSO4 added or (C) lysate with 1 mM NiSO4 added (filled circles, one-way ANOVA with Holm-Sidak’s multiple comparisons test or mixed model with Dunnett’s multiple comparisons test)(* = P&lt;0.05, ** = P&lt;0.01, *** = P&lt;0.001).
DOI: 10.6084/m9.figshare.25345390
title: 20240305 Gray Figure S2 data

description: <b>FIG S2 </b><b>Transition metals (Cu, Zn, Ni) do not affect HOSCN stability. </b>Reactions (1 ml) containing 500 µM HOSCN and either no metal or 100 µM of CuCl<sub>2</sub>, ZnSO<sub>4</sub>, or NiSO<sub>4</sub> in 10 mM HEPES-KOH buffer (pH 7.4) were incubated for 20 min at 37°C. At 5-min intervals, 20 µl aliquots were removed and assayed for HOSCN content using 2-nitro-5-thiobenzoic acid (TNB)(n=3 experimental replicates; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345390.v1
title: 20240305 Gray Figure S2 data

description: <b>FIG S2 </b><b>Transition metals (Cu, Zn, Ni) do not affect HOSCN stability. </b>Reactions (1 ml) containing 500 µM HOSCN and either no metal or 100 µM of CuCl<sub>2</sub>, ZnSO<sub>4</sub>, or NiSO<sub>4</sub> in 10 mM HEPES-KOH buffer (pH 7.4) were incubated for 20 min at 37°C. At 5-min intervals, 20 µl aliquots were removed and assayed for HOSCN content using 2-nitro-5-thiobenzoic acid (TNB)(n=3 experimental replicates; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345399
title: 20240305 Gray Figure S4 data

description: <b>FIG S4 Nickel sensitivity of an </b><b><i>E. coli</i></b><b> </b><b><i>rcnA</i></b><b> mutant. </b><i>E. coli</i> strains MG1655 and MJG2346 (MG1655 ∆<i>rcnA731</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium containing 0.2% glucose without micronutrients, supplemented with 0, 62.5, 125, 250, or 500 µM NiSO<sub>4</sub>, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 23 hours (n=3 experimental replicates, with 1-6 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345372
title: 20240305 Gray Figure 6 data

description: <b>FIG 6 Glutathione reductase contributes to </b><b><i>E. coli </i></b><b>HOSCN resistance. </b><i>E. coli</i> strains MG1655 (wild-type), MJG0044 (MG1655 ∆<i>nemA728</i>), MJG0081 (MG1655 <i>hslO</i>::<i>kan</i><sup>+</sup>), MJG0176 (MG1655 ∆<i>mgsA778</i>), MJG1958 (MG1655 ∆<i>rclA747</i>), MJG2371 (MG1655 ∆<i>trxB786</i>::<i>kan</i><sup>+</sup>), MJG2385 (MG1655 ∆<i>trxA732</i>::<i>kan</i><sup>+</sup>), MJG2387 (MG1655 ∆<i>trxC750</i>::<i>kan</i><sup>+</sup>), MJG2388 (MG1655 ∆<i>grxA750</i>::<i>kan</i><sup>+</sup>), MJG2398 (MG1655 ∆<i>gor-756</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, with or without 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3-4 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345372.v1
title: 20240305 Gray Figure 6 data

description: <b>FIG 6 Glutathione reductase contributes to </b><b><i>E. coli </i></b><b>HOSCN resistance. </b><i>E. coli</i> strains MG1655 (wild-type), MJG0044 (MG1655 ∆<i>nemA728</i>), MJG0081 (MG1655 <i>hslO</i>::<i>kan</i><sup>+</sup>), MJG0176 (MG1655 ∆<i>mgsA778</i>), MJG1958 (MG1655 ∆<i>rclA747</i>), MJG2371 (MG1655 ∆<i>trxB786</i>::<i>kan</i><sup>+</sup>), MJG2385 (MG1655 ∆<i>trxA732</i>::<i>kan</i><sup>+</sup>), MJG2387 (MG1655 ∆<i>trxC750</i>::<i>kan</i><sup>+</sup>), MJG2388 (MG1655 ∆<i>grxA750</i>::<i>kan</i><sup>+</sup>), MJG2398 (MG1655 ∆<i>gor-756</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, with or without 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3-4 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345375
title: 202403505 Gray Figure 7 data

description: <b>FIG 7 Glutathione mutants are extremely sensitive to HOSCN. </b><i>E. coli</i> strains MG1655 (wild-type), MJG2398 (MG1655 ∆<i>gor-756</i>::<i>kan</i><sup>+</sup>), and MJG2485 (MG1655 ∆<i>gshA769</i>:<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, with or without 100 µM HOSCN and/or 300 µM NiSO<sub>4</sub>, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 4 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345375.v1
title: 202403505 Gray Figure 7 data

description: <b>FIG 7 Glutathione mutants are extremely sensitive to HOSCN. </b><i>E. coli</i> strains MG1655 (wild-type), MJG2398 (MG1655 ∆<i>gor-756</i>::<i>kan</i><sup>+</sup>), and MJG2485 (MG1655 ∆<i>gshA769</i>:<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, with or without 100 µM HOSCN and/or 300 µM NiSO<sub>4</sub>, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 4 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345378.v1
title: 20240305 Gray Figure 8 data

description: FIG 8 Glutathione reductase is inhibited by nickel but not by HOSCN. Glutathione and thioredoxin reductase activity was measured in cell-free lysates of E. coli MG1655. Glutathione reductase assays (A-C) contained 50 mM HEPES-KOH buffer (pH 8), 1.2 mM oxidized glutathione, 600 µM DTNB, 350 µM NADPH, and thioredoxin reductase assays (D) contained 50 mM HEPES-KOH buffer (pH 8), 500 nM E. coli thioredoxin 1 (TrxA), 0.1 mg ml-1 bovine serum albumin, 500 µM DTNB, and 240 µM NADPH. Reactions also contained the indicated concentrations of NiSO4, polyP, and/or EDTA, and were started by addition of cell lysate (1.63-16.3 µg total protein). DTNB oxidation to TNB was measured over time, using the TNB extinction coefficient at 412 nm of 14100 M-1 cm-1, then specific activities were calculated as nmol GSH or TrxA reduced min-1 mg-1 total protein (n=3-6 experimental replicates; error bars of 1 standard deviation). HOSCN-oxidized lysates (used as indicated in B and D) were prepared by incubating cell lysate (3.26 mg ml-1 total protein) for 5 min at room temperature with 3 mM HOSCN, then quenching unreacted HOSCN with an equal volume of 2 mM TNB. Asterisks indicate activities significantly different from that of (A, B, and D) lysate with no NiSO4 added or (C) lysate with 1 mM NiSO4 added (filled circles, one-way ANOVA with Holm-Sidak’s multiple comparisons test or mixed model with Dunnett’s multiple comparisons test)(* = P&lt;0.05, ** = P&lt;0.01, *** = P&lt;0.001).
DOI: 10.6084/m9.figshare.25345384
title: 20240305 Gray Figure S1 data

description: <b>FIG S1 </b><b>Thiocyanate does not affect the minimal inhibitory concentration of nickel for </b><b><i>Escherichia coli</i></b><b>. </b><i>E. coli</i> strain MG1655 was grown overnight at 37°C with shaking in MOPS minimal medium containing 0.2% glucose, then normalized to A<sub>600</sub> = 1 and rinsed twice with sterile MOPS minimal medium containing 0.2% glucose but lacking micronutrients. The resulting cell suspensions were diluted 1:40 into MOPS minimal media containing 0.2% glucose without micronutrients, supplemented with the indicated concentrations of NiSO<sub>4</sub> and/or NaSCN. Growth curves were performed in clear 96-well plates in a Tecan Spark plate reader, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 22 hours (n=3 experimental replicates, with 1-3 technical replicates per experiment; error bars of one standard deviation). Dashed lines indicate A<sub>600</sub> = 0.1 and t = 18 h.
DOI: 10.6084/m9.figshare.25345384.v1
title: 20240305 Gray Figure S1 data

description: <b>FIG S1 </b><b>Thiocyanate does not affect the minimal inhibitory concentration of nickel for </b><b><i>Escherichia coli</i></b><b>. </b><i>E. coli</i> strain MG1655 was grown overnight at 37°C with shaking in MOPS minimal medium containing 0.2% glucose, then normalized to A<sub>600</sub> = 1 and rinsed twice with sterile MOPS minimal medium containing 0.2% glucose but lacking micronutrients. The resulting cell suspensions were diluted 1:40 into MOPS minimal media containing 0.2% glucose without micronutrients, supplemented with the indicated concentrations of NiSO<sub>4</sub> and/or NaSCN. Growth curves were performed in clear 96-well plates in a Tecan Spark plate reader, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 22 hours (n=3 experimental replicates, with 1-3 technical replicates per experiment; error bars of one standard deviation). Dashed lines indicate A<sub>600</sub> = 0.1 and t = 18 h.
DOI: 10.6084/m9.figshare.25345396
title: 20240305 Gray Figure S3 data

description: <b>FIG S3 Deletions of copper and nickel exporters have small effects on </b><b><i>E. coli</i></b><b> sensitivity to HOSCN in the presence of their respective metals. </b><i>E. coli</i> strains MG1655, MJG1759 (MG1655 ∆<i>copA767</i>::<i>kan</i><sup>+</sup>), MJG2344 (MG1655 ∆<i>zntA724</i>::<i>kan</i><sup>+</sup>), and MJG2346 (MG1655 ∆<i>rcnA731</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with (A) 1 µM CuCl<sub>2</sub>, (B) 1 µM ZnSO<sub>4</sub>, or (C) 100 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3-4 experimental replicates, with 2-3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345396.v1
title: 20240305 Gray Figure S3 data

description: <b>FIG S3 Deletions of copper and nickel exporters have small effects on </b><b><i>E. coli</i></b><b> sensitivity to HOSCN in the presence of their respective metals. </b><i>E. coli</i> strains MG1655, MJG1759 (MG1655 ∆<i>copA767</i>::<i>kan</i><sup>+</sup>), MJG2344 (MG1655 ∆<i>zntA724</i>::<i>kan</i><sup>+</sup>), and MJG2346 (MG1655 ∆<i>rcnA731</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with (A) 1 µM CuCl<sub>2</sub>, (B) 1 µM ZnSO<sub>4</sub>, or (C) 100 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3-4 experimental replicates, with 2-3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345363.v1
title: 20240305 Gray Figure 4 data

description: <b>FIG 4 Sensitization of </b><b><i>E. coli</i></b><b> to HOSCN </b><b><i>in vivo </i></b><b>by copper is slight, and not RclA-dependent. </b><i>E. coli</i> strains MG1655 (wild-type), MJG1759 (MG1655 ∆<i>copA767</i>::<i>kan</i><sup>+</sup>), MJG1958 (MG1655 ∆<i>rclA747</i>), and MJG2358 (MG1655 ∆<i>rclA747</i> ∆<i>copA767</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with 1 µM CuCl<sub>2</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=4 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345369.v1
title: 20240305 Gray Figure 5 data

description: <b>FIG 5 Nickel enhancement of HOSCN toxicity is independent of RclABC. </b><i>E. coli</i> strains MG1655 (wild-type), MJG1958 (MG1655 ∆<i>rclA747</i>), and MJG0901 (MG1655 ∆<i>rclABC1</i>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with 300 µM NiSO<sub>4</sub> and/or 200 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345339
title: 20240305 Gray Figure 1 data

description: <b>FIG 1 Nickel enhances HOSCN toxicity. </b><i>E. coli</i> strains MG1655 (wild-type) and MJG2314 (MG1655 ∆<i>corA761</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with 300 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345339.v1
title: 20240305 Gray Figure 1 data

description: <b>FIG 1 Nickel enhances HOSCN toxicity. </b><i>E. coli</i> strains MG1655 (wild-type) and MJG2314 (MG1655 ∆<i>corA761</i>::<i>kan</i><sup>+</sup>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose, supplemented with 300 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 3 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345348
title: 20240305 Gray Figure 2 data

description: <b>FIG 2 Polyphosphate protects </b><b><i>E. coli</i></b><b> against nickel-dependent HOSCN sensitization. </b><i>E. coli</i> strains MG1655 (wild-type), MJG0224 (MG1655 ∆<i>ppk-749</i>), and MJG0315 (MG1655 ∆<i>ppx-750</i>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose and 0.1% casamino acids, supplemented with 500 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 4 technical replicates per experiment; error bars of 1 standard deviation).
DOI: 10.6084/m9.figshare.25345348.v1
title: 20240305 Gray Figure 2 data

description: <b>FIG 2 Polyphosphate protects </b><b><i>E. coli</i></b><b> against nickel-dependent HOSCN sensitization. </b><i>E. coli</i> strains MG1655 (wild-type), MJG0224 (MG1655 ∆<i>ppk-749</i>), and MJG0315 (MG1655 ∆<i>ppx-750</i>) were grown in MOPS minimal medium without micronutrients containing 0.2% glucose and 0.1% casamino acids, supplemented with 500 µM NiSO<sub>4</sub> and/or 400 µM HOSCN, as indicated, incubating at 37°C with shaking and measuring A<sub>600</sub> at 30-minute intervals for 24 hours (n=3 experimental replicates, with 4 technical replicates per experiment; error bars of 1 standard deviation).