cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.57992/nmrxiv.p55.s281.d1649
title: 2_NMR_Methanol-d4-1[103]
DOI: 10.57992/nmrxiv.p55.s282
title: 3_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s282.d1651
title: 3_NMR_Methanol-d4-1[110]
DOI: 10.57992/nmrxiv.p55.s282.d1652
title: 3_NMR_Methanol-d4-1[111]
DOI: 10.57992/nmrxiv.p55.s282.d1653
title: 3_NMR_Methanol-d4-1[112]
DOI: 10.57992/nmrxiv.p55.s283
title: 4_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s283.d1660
title: 4_NMR_Methanol-d4-1[64]
DOI: 10.57992/nmrxiv.p55.s284.d1662
title: 3_NMR_DMSO-d6-1[110]
DOI: 10.57992/nmrxiv.p55.s284.d1664
title: 3_NMR_DMSO-d6-1[112]
DOI: 10.57992/nmrxiv.p55.s284.d1665
title: 3_NMR_DMSO-d6-1[113]
DOI: 10.57992/nmrxiv.p55.s285
title: 8_NMR_DMSO-d6-2
DOI: 10.57992/nmrxiv.p55.s285.d1668
title: 8_NMR_DMSO-d6-2[10]
DOI: 10.57992/nmrxiv.p55.s286
title: 4_NMR_DMSO-d6-1
DOI: 10.57992/nmrxiv.p55.s286.d1670
title: 4_NMR_DMSO-d6-1[10]
DOI: 10.57992/nmrxiv.p55.s278.d1632
title: 6_NMR_Methanol-d4-1[81]
DOI: 10.57992/nmrxiv.p55.s278.d1633
title: 6_NMR_Methanol-d4-1[82]
DOI: 10.57992/nmrxiv.p55.s278.d1635
title: 6_NMR_Methanol-d4-1[84]
DOI: 10.57992/nmrxiv.p55.s279
title: 10_NMR_DMSO-d6-1
DOI: 10.57992/nmrxiv.p55.s279.d1637
title: 10_NMR_DMSO-d6-1[21]
DOI: 10.57992/nmrxiv.p55.s287.d1676
title: 5_NMR_Methanol-d4-1[71]
DOI: 10.57992/nmrxiv.p55.s279.d1638
title: 10_NMR_DMSO-d6-1[22]
DOI: 10.57992/nmrxiv.p55.s287.d1678
title: 5_NMR_Methanol-d4-1[73]
DOI: 10.57992/nmrxiv.p55.s288.d1680
title: 9_11_NMR_Methanol-d4-2[20]
DOI: 10.57992/nmrxiv.p55.s280.d1642
title: 8_NMR_DMSO-d6-1[11]
DOI: 10.57992/nmrxiv.p55.s280.d1644
title: 8_NMR_DMSO-d6-1[13]
DOI: 10.57992/nmrxiv.p55.s290.d1687
title: 1_NMR_Methanol-d4-1[20]
DOI: 10.57992/nmrxiv.p55.s281.d1650
title: 2_NMR_Methanol-d4-1[104]
DOI: 10.57992/nmrxiv.p55.s291
title: 10_NMR_DMSO-d6-2
DOI: 10.57992/nmrxiv.p55.s282.d1654
title: 3_NMR_Methanol-d4-1[113]
DOI: 10.57992/nmrxiv.p55.s291.d1693
title: 10_NMR_DMSO-d6-2[31]
DOI: 10.57992/nmrxiv.p55.s282.d1655
title: 3_NMR_Methanol-d4-1[114]
DOI: 10.57992/nmrxiv.p55.s283.d1656
title: 4_NMR_Methanol-d4-1[60]
DOI: 10.57992/nmrxiv.p55.s292.d1695
title: 9_11_NMR_Methanol-d4-1[51]
DOI: 10.57992/nmrxiv.p55.s283.d1657
title: 4_NMR_Methanol-d4-1[61]
DOI: 10.57992/nmrxiv.p55.s283.d1658
title: 4_NMR_Methanol-d4-1[62]
DOI: 10.57992/nmrxiv.p55.s283.d1659
title: 4_NMR_Methanol-d4-1[63]
DOI: 10.57992/nmrxiv.p55.s284
title: 3_NMR_DMSO-d6-1
DOI: 10.57992/nmrxiv.p55.s293.d1699
title: 7_NMR_Methanol-d4-1[90]
DOI: 10.57992/nmrxiv.p55.s284.d1661
title: 3_NMR_DMSO-d6-1[100]
DOI: 10.57992/nmrxiv.p55.s284.d1663
title: 3_NMR_DMSO-d6-1[111]
DOI: 10.57992/nmrxiv.p55.s293.d1702
title: 7_NMR_Methanol-d4-1[93]
DOI: 10.6084/m9.figshare.24873900
title: Supplementary Material for: Final results from RIBBIT: A randomized phase III study to evaluate efficacy and quality of life in patients with metastatic hormone receptor-positive HER2-negative breast cancer receiving ribociclib in combination with endocrine therapy or chemotherapy with or without bevacizumab in the first-line setting

description: Background
We investigated the efficacy and health-related quality of life (HRQoL) in patients receiving either ribociclib plus endocrine therapy (ET) or chemotherapy with/without bevacizumab as first-line treatment of metastatic HR-positive, HER2-negative breast cancer (BC).
Patients and Methods
In this randomized, phase III study (RIBBIT), 38 patients diagnosed with metastatic HR-positive, HER2-negative BC with presence of visceral metastases recruited between May 2018 and December 2020 were randomly assigned in a 1:1 ratio to either arm A (ribociclib+ET) or arm B (chemotherapy with/without bevacizumab) at 12 sites in Germany. The primary endpoint was progression-free survival (PFS). Secondary endpoints included overall response rate (ORR), overall survival (OS), patient-reported HRQoL, and frequency and type of adverse events. During study conduction, the recruitment rate was persistently and considerably lower than originally expected. Therefore, the recruitment was ended prematurely. The study was initially designed to enroll and randomize 158 patients. 
Results
Median [95% CI] PFS was 27.3 months [19.1 – NA, parameter not estimable] in arm A and 15.8 months [8.2 – NA] in arm B. Complete responses were achieved only in arm A (n=2, 10.5%). The ORR [95% CI] between arm A (57.9% [33.5-79.7]) and arm B (52.6% [28.9-75.6]) was comparable. Median OS [95% CI] was not reached in arm A, while in arm B median OS was 28.4 months [25.0 – NA]. Patients in arm A reported less burden by side-effects. No new safety signals emerged.
Conclusion
Treatment of patients with visceral metastatic HR-positive, HER2-negative BC with ribociclib in combination with ET showed a tendency towards a more favorable clinical outcome. Despite small numbers of patients and sites, this head-to-head comparison with chemotherapy supports the use of ribociclib with ET in patients with visceral metastasis at risk of fast disease progression.

The RIBBIT study was registered at ClinicalTrials.gov (EudraCT No: 2017-002930-22), 14/02/2018.
DOI: 10.57992/nmrxiv.p55.s284.d1666
title: 3_NMR_DMSO-d6-1[114]
DOI: 10.57992/nmrxiv.p55.s284.d1667
title: 3_NMR_DMSO-d6-1[118]
DOI: 10.57992/nmrxiv.p55.s285.d1669
title: 8_NMR_DMSO-d6-2[11]
DOI: 10.57992/nmrxiv.p55.s286.d1671
title: 4_NMR_DMSO-d6-1[11]
DOI: 10.57992/nmrxiv.p55.s286.d1672
title: 4_NMR_DMSO-d6-1[12]
DOI: 10.57992/nmrxiv.p55.s286.d1673
title: 4_NMR_DMSO-d6-1[13]
DOI: 10.57992/nmrxiv.p55.s286.d1674
title: 4_NMR_DMSO-d6-1[14]
DOI: 10.57992/nmrxiv.p55.s287
title: 5_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s287.d1675
title: 5_NMR_Methanol-d4-1[70]
DOI: 10.57992/nmrxiv.p55.s287.d1677
title: 5_NMR_Methanol-d4-1[72]
DOI: 10.57992/nmrxiv.p55.s287.d1679
title: 5_NMR_Methanol-d4-1[74]
DOI: 10.57992/nmrxiv.p55.s280
title: 8_NMR_DMSO-d6-1
DOI: 10.57992/nmrxiv.p55.s288
title: 9_11_NMR_Methanol-d4-2
DOI: 10.57992/nmrxiv.p55.s288.d1681
title: 9_11_NMR_Methanol-d4-2[21]
DOI: 10.57992/nmrxiv.p55.s289
title: 1_NMR_DMSO-d6-1
DOI: 10.57992/nmrxiv.p55.s280.d1645
title: 8_NMR_DMSO-d6-1[14]
DOI: 10.57992/nmrxiv.p55.s289.d1682
title: 1_NMR_DMSO-d6-1[10]
DOI: 10.57992/nmrxiv.p55.s289.d1683
title: 1_NMR_DMSO-d6-1[11]
DOI: 10.57992/nmrxiv.p55.s289.d1684
title: 1_NMR_DMSO-d6-1[12]
DOI: 10.57992/nmrxiv.p55.s289.d1685
title: 1_NMR_DMSO-d6-1[13]
DOI: 10.57992/nmrxiv.p55.s289.d1686
title: 1_NMR_DMSO-d6-1[14]
DOI: 10.57992/nmrxiv.p55.s281.d1648
title: 2_NMR_Methanol-d4-1[102]
DOI: 10.57992/nmrxiv.p55.s290
title: 1_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s290.d1688
title: 1_NMR_Methanol-d4-1[21]
DOI: 10.57992/nmrxiv.p55.s290.d1689
title: 1_NMR_Methanol-d4-1[22]
DOI: 10.57992/nmrxiv.p55.s290.d1690
title: 1_NMR_Methanol-d4-1[23]
DOI: 10.57992/nmrxiv.p55.s290.d1691
title: 1_NMR_Methanol-d4-1[24]
DOI: 10.57992/nmrxiv.p55.s291.d1692
title: 10_NMR_DMSO-d6-2[30]
DOI: 10.57992/nmrxiv.p55.s292
title: 9_11_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s292.d1694
title: 9_11_NMR_Methanol-d4-1[50]
DOI: 10.57992/nmrxiv.p55.s292.d1696
title: 9_11_NMR_Methanol-d4-1[52]
DOI: 10.57992/nmrxiv.p55.s292.d1697
title: 9_11_NMR_Methanol-d4-1[53]
DOI: 10.57992/nmrxiv.p55.s292.d1698
title: 9_11_NMR_Methanol-d4-1[54]
DOI: 10.57992/nmrxiv.p55.s293
title: 7_NMR_Methanol-d4-1
DOI: 10.57992/nmrxiv.p55.s293.d1700
title: 7_NMR_Methanol-d4-1[91]
DOI: 10.57992/nmrxiv.p55.s293.d1701
title: 7_NMR_Methanol-d4-1[92]
DOI: 10.57992/nmrxiv.p55.s293.d1703
title: 7_NMR_Methanol-d4-1[94]
DOI: 10.6084/m9.figshare.25003397
title: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)

description: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)
DOI: 10.6084/m9.figshare.25003397.v1
title: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)

description: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)
DOI: 10.6084/m9.figshare.25003397.v2
title: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)

description: MMP14 expression is higher in tumor tissues than in paracancerous (healthy tissues)
DOI: 10.5281/zenodo.10518861
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: TightEN - ZEB-Laboratory - Temperature behind claddingSINTEF Community - ABK

DescriptionTo design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap.

See the attached article from IBPC2021 for more information about the project.

LocationZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),MethodologyThe instrumentation took place during the construction phase of the building in the period November2019 to February 2020, and the data logging began in August 2020. The air gap of the walls wasinstrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured atthree different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surfaceof the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solarpanel.

AcknowledgementThe authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894.

Description of dataEach file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).The naming of each column is "TXY-Z" whereX is facade (North, East, South, West or Roof)Y is the position on the facade (1, 2, 3, 4 or 5)*Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding)

*only on the North facade is there 5 positions.

Update 2022-09-02:Added data from 2022-03 - 2022-08Corrected files 2021-02 and 2021-03

Update 2023-01-27:Added data from 2022-09 - 2023-01

Update 2024-01-16Added data from 2023
DOI: 10.5281/zenodo.6371369
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: TightEN - ZEB-Laboratory - Temperature behind claddingSINTEF Community - ABK

DescriptionTo design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap.

See the attached article from IBPC2021 for more information about the project.

LocationZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),MethodologyThe instrumentation took place during the construction phase of the building in the period November2019 to February 2020, and the data logging began in August 2020. The air gap of the walls wasinstrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured atthree different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surfaceof the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solarpanel.

AcknowledgementThe authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894.

Description of dataEach file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).The naming of each column is "TXY-Z" whereX is facade (North, East, South, West or Roof)Y is the position on the facade (1, 2, 3, 4 or 5)*Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding)

*only on the North facade is there 5 positions.

Update 2022-09-02:Added data from 2022-03 - 2022-08Corrected files 2021-02 and 2021-03

Update 2023-01-27:Added data from 2022-09 - 2023-01

Update 2024-01-16Added data from 2023
DOI: 10.5281/zenodo.6371370
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: <strong>TightEN - ZEB-Laboratory - Temperature behind cladding</strong><br> <em>SINTEF Community - ABK</em> <strong>Description</strong><br> To design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap. See the attached article from IBPC2021 for more information about the project. <strong>Location</strong><br> ZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),<br> <br> <strong>Methodology</strong><br> The instrumentation took place during the construction phase of the building in the period November<br> 2019 to February 2020, and the data logging began in August 2020. The air gap of the walls was<br> instrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy<br> ±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured at<br> three different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surface<br> of the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solar<br> panel. <strong>Acknowledgement</strong><br> The authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894. <strong>Description of data</strong><br> Each file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).<br> The naming of each column is "TXY-Z" where<br> X is facade (<strong>N</strong>orth, <strong>E</strong>ast, <strong>S</strong>outh, <strong>W</strong>est or <strong>R</strong>oof)<br> Y is the position on the facade (1, 2, 3, 4 or 5)*<br> Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding) *only on the North facade is there 5 positions.
DOI: 10.5281/zenodo.7042455
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: <strong>TightEN - ZEB-Laboratory - Temperature behind cladding</strong><br> <em>SINTEF Community - ABK</em> <strong>Description</strong><br> To design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap. See the attached article from IBPC2021 for more information about the project. <strong>Location</strong><br> ZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),<br> <br> <strong>Methodology</strong><br> The instrumentation took place during the construction phase of the building in the period November<br> 2019 to February 2020, and the data logging began in August 2020. The air gap of the walls was<br> instrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy<br> ±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured at<br> three different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surface<br> of the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solar<br> panel. <strong>Acknowledgement</strong><br> The authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894. <strong>Description of data</strong><br> Each file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).<br> The naming of each column is "TXY-Z" where<br> X is facade (<strong>N</strong>orth, <strong>E</strong>ast, <strong>S</strong>outh, <strong>W</strong>est or <strong>R</strong>oof)<br> Y is the position on the facade (1, 2, 3, 4 or 5)*<br> Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding) *only on the North facade is there 5 positions. <em>Update 2022-09-02:</em><br> Added data from 2022-03 - 2022-08
DOI: 10.5281/zenodo.7042548
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: <strong>TightEN - ZEB-Laboratory - Temperature behind cladding</strong><br> <em>SINTEF Community - ABK</em> <strong>Description</strong><br> To design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap. See the attached article from IBPC2021 for more information about the project. <strong>Location</strong><br> ZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),<br> <br> <strong>Methodology</strong><br> The instrumentation took place during the construction phase of the building in the period November<br> 2019 to February 2020, and the data logging began in August 2020. The air gap of the walls was<br> instrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy<br> ±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured at<br> three different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surface<br> of the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solar<br> panel. <strong>Acknowledgement</strong><br> The authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894. <strong>Description of data</strong><br> Each file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).<br> The naming of each column is "TXY-Z" where<br> X is facade (<strong>N</strong>orth, <strong>E</strong>ast, <strong>S</strong>outh, <strong>W</strong>est or <strong>R</strong>oof)<br> Y is the position on the facade (1, 2, 3, 4 or 5)*<br> Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding) *only on the North facade is there 5 positions. <em>Update 2022-09-02:</em><br> Added data from 2022-03 - 2022-08<br> Corrected files 2021-02 and 2021-03
DOI: 10.5281/zenodo.7576118
title: TightEN - ZEB-Laboratory - Temperature behind cladding

description: <strong>TightEN - ZEB-Laboratory - Temperature behind cladding</strong><br> <em>SINTEF Community - ABK</em> <strong>Description</strong><br> To design test methods to ensure the performance of tapes and other products used in the ventilated air gap of buildings, more knowledge on the climatic conditions, especially temperature conditions, is needed. The recently finished ZEB Laboratory has been instrumented with thermocouples to monitor the temperature conditions in the air gap. See the attached article from IBPC2021 for more information about the project. <strong>Location</strong><br> ZEB Laboratory building in Trondheim (N 63°24'51'', E 10°24'27''),<br> <br> <strong>Methodology</strong><br> The instrumentation took place during the construction phase of the building in the period November<br> 2019 to February 2020, and the data logging began in August 2020. The air gap of the walls was<br> instrumented with thermocouples (type T) and measured using a Campbell Scientific CR1000 (accuracy<br> ±0.5 °C and a range of -40 °C to 85 °C). At each location (see Figure 1 in attached paper), the temperature is measured at<br> three different positions of the air cavity: on the surface of the exterior air barrier (façade) or the surface<br> of the asphalt roof cover (roof), in the middle of the air gap, and on the rear face of the cladding or solar<br> panel. <strong>Acknowledgement</strong><br> The authors gratefully acknowledge the benevolence from the ZEB Laboratory (The Research Council of Norway Grant No 245663, www.zeblab.no). This study was funded by the project “TightEN - Durable adhesive airtight solutions for energy efficient building envelopes” by Research Council of Norway, grant No. 294894. <strong>Description of data</strong><br> Each file represents one month of measurements. Data is acquired every 15 minutes from all sensors. The measurement system is calibrated using a dry block calibrator. Timestamps are CET (UTC+1).<br> The naming of each column is "TXY-Z" where<br> X is facade (<strong>N</strong>orth, <strong>E</strong>ast, <strong>S</strong>outh, <strong>W</strong>est or <strong>R</strong>oof)<br> Y is the position on the facade (1, 2, 3, 4 or 5)*<br> Z is the depth in the wall (1 - On the interior barrier, 2 - In the air gap, 3 - On the outer cladding) *only on the North facade is there 5 positions. <em>Update 2022-09-02:</em><br> Added data from 2022-03 - 2022-08<br> Corrected files 2021-02 and 2021-03 <em>Update 2023-01-27:</em><br> Added data from 2022-09 - 2023-01
DOI: 10.5281/zenodo.10518904
title: Dataset-Testing
DOI: 10.5281/zenodo.10518905
title: Dataset-Testing
DOI: 10.6084/m9.figshare.25003418
title: Western blot

description: About Western Blot
DOI: 10.5281/zenodo.8386656
title: azamanos/HydraProt: Connect Zenodo

description: Connect Zenodo
DOI: 10.5281/zenodo.10518938
title: Description of Navicula vanseea sp. nov., a new species of diatom from the highly alkaline Lake Van (Republic of Türkiye) with complete characterization of its organellar genomes and multigene phylogeny

description: The alignment, partition file and complete tree in Newick format for the article mentionned above.
DOI: 10.5281/zenodo.10518939
title: Description of Navicula vanseea sp. nov., a new species of diatom from the highly alkaline Lake Van (Republic of Türkiye) with complete characterization of its organellar genomes and multigene phylogeny

description: The alignment, partition file and complete tree in Newick format for the article mentionned above.