Books: 'Relative humidity'

1

Food, Ontario Dept of Agriculture and. Measuring Relative Humidity (rh). S.l: s.n, 1985.

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2

Payne, Richard E. Trials of a new relative humidity sensor. Woods Hole, Mass: Upper Ocean Processes Group, Woods Hole Oceanographic Institution, 2004.

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3

Relative humidity: Sensors, management, and environmental effects. Hauppauge, N.Y: Nova Science Publishers, 2010.

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4

Thomson, Garry. Simple control and measurement of relative humidity in museums. 2nd ed. [London]: Museums Association, 1985.

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5

Payne, Richard E. Calibration history of some Rotronic MP-100 and Vaisala Humicap relative humidity sensors. Woods Hole, Mass: Upper Ocean Processes Group, Woods Hole Oceanographic Institution, 1994.

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6

Hooker, Matthew W. Room temperature degradation of YBa2Cu307x superconductors in varying relative humidity environments. Hampton, Va: Langley Research Center, 1993.

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7

Guo, William X. Influence of relative humidity on the stress relaxation of sucrose compacts. Ottawa: National Library of Canada, 1997.

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8

Smolinski, Steven P. Marine boundary layer depth and relative humidity estimates using multispectral satellite measurements. Monterey, California: Naval Postgraduate School, 1988.

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9

Melin, Charlotta Bylund. Wooden objects in historic buildings: Effects of dynamic relative humidity and temperature. Göteborg: University of Gothenburg, Acta Universitatis Gothoburgensis, 2017.

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10

W, Hooker M., and United States. National Aeronautics and Space Administration. Scientific and Technical Information Program., eds. Room temperature degradation of YBaĆuÓ[́́subscript x] superconductors in varying relative humidity environments. [Washington, D.C.]: National Aeronautics and Space Administration, Office of Management, Scientific and Technical Information Program, 1993.

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11

Canada Centre For Mineral and Energy Technology. Energy Research Program. Effect of Relative Humidity on Anti-Static Properties of Non-Metallic Mine Materials. S.l: s.n, 1985.

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12

J, Lake Brian, Pacific Marine Environmental Laboratory (U.S.), and University of Washington. Joint Institute for the Study of the Atmosphere and Ocean, eds. Calibration procedures and instrumental accuracy estimates of ATLAS air temperature and relative humidity measurements. Seattle, Wash: U.S. Dept. of Commerce, National Oceanic and Atmospheric Administration, Oceanic and Atmospheric Research Laboratories, Pacific Marine Environmental Laboratory, 2003.

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13

Pacific Marine Environmental Laboratory (U.S.), ed. Calibration procedures and instrumental accuracy estimates of tao temperature, relative humidity and radiation measurements. Seattle, Wash: U.S. Dept. of Commerce, National Oceanic and Atmospheric Administration, Environmental Research Laboratories, Pacific Marine Environmental Laboratory, 1994.

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14

1944-, Green David W., and Forest Products Laboratory (U.S.), eds. Durability of structural lumber products after exposure at 82 [degrees] C and 80% relative humidity. Madison, WI: U.S. Dept. of Agriculture, Forest Service, Forest Products Laboratory, 2005.

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15

Kakko, Rhea. Vapour cloud modelling in the risk assessment of major toxic hazards: Effect of relative humidity. Espoo, Finland: Valtion teknillinen tutkimuskeskus, 1990.

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16

T, Rochelle Gary, and Air and Energy Engineering Research Laboratory, eds. Effect of relative humidity and additives on the reaction of sulphur dioxide with calcium hydroxide: Project summary. Research Triangle Park, NC: U.S. Environmental Protection Agency, Air and Energy Engineering Research Laboratory, 1988.

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17

Artymko, John Walter Gerrard. Effect of temperature and relative humidity during fixation of leachability, biodeterioration and XPS spectra CCA-A treated red pine sapwood. Ottawa: National Library of Canada, 1994.

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18

Edwards, Paula Jane. Investigation of a positive correlation between the efficiency of water uptake by silica gel and relative humidity values over a seven week period. Northampton: Nene College, 1995.

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19

Eicker, Ursula. Solar Technologies for Buildings. New York: John Wiley & Sons, Ltd., 2006.

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20

Solar technologies for buildings. Chichester: Wiley, 2003.

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21

Oney, LLC Re`al "Bull." Relative Humidity! iUniverse, Inc., 2007.

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22

Relative Humidity: Thermodynamic Charts. Tappi Pr, 1997.

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23

Monitoring temperature and relative humidity. Andover, Mass: Northeast Document Conservation Centre, 1992.

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24

Cassar, M. Relative Humidity and Temperature Pattern Book. Resource: The Council for Museums, Archives and Libraries, 2000.

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25

Ahmad, Waqar. The effect of refractory period and relative humidity on exercise induced asthma. 1991.

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Ahmad, Waqar. The effect of refractory period and relative humidity on exercise induced asthma. 1990.

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27

Ahmad, Waqar. The effect of refractory period and relative humidity on exercise induced asthma. 1990.

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28

Bayou, Million Mamo. The effect of natural fencerows on local standardized windspeed, temperature and relative humidity. 1997.

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29

An Examination of the Hanson Contrail Forecast Algorithm Under Low Relative Humidity Conditions. Storming Media, 1997.

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30

Kren, Richard J. Estimation of marine boundary layer depth and relative humidity with multispectral satellite measurements. 1987.

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31

United States Army Signal Corps. Tables for Obtaining the Temperature of the Dew-Point, Relative Humidity, and Vapor Pressure. Creative Media Partners, LLC, 2022.

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32

Bureau, United States Weather. Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity, and Temperature of the Dew-Point. Franklin Classics, 2018.

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33

Marshall, T. O., and M. I. L. Milton. Fading Characteristics of Kodak Type-2 Film Under a Number of Temperature and Relative Humidity Conditions. National Radiological Protection Board, 1987.

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34

Marvin, Charles Frederick, and United States Weather Bureau. Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity, and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Creative Media Partners, LLC, 2018.

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35

Marvin, Charles Frederick. Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Creative Media Partners, LLC, 2018.

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36

Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Creative Media Partners, LLC, 2022.

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37

Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Creative Media Partners, LLC, 2022.

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38

Marvin, Charles Frederick. Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Franklin Classics Trade Press, 2018.

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39

Marvin, Charles Frederick. Psychrometric Tables for Obtaining the Vapor Pressure, Relative Humidity and Temperature of the Dew-Point: From Readings of the Wet and Dry Bulb Thermometers. Creative Media Partners, LLC, 2018.

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40

Eicker, Ursula. Solar Technologies for Buildings. Wiley & Sons Australia, Limited, John, 2005.

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41

Eicker, Ursula. Solar Technologies for Buildings. Wiley & Sons, Incorporated, John, 2006.

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42

Gajewski, Zbigniew. Prognozowanie wystąpień faz fenologicznych pierwiosnki omączonej Primula farinosa L. (Primulaceae) – krytycznie zagrożonego gatunku - w odniesieniu do fenologii innych składników lokalnej flory i panujących warunków termicznych. Publishing House of the University of Agriculture in Krakow, 2018. http://dx.doi.org/10.15576/978-83-66602-32-8.

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Abstract:

In Poland, the bird’s-eye primrose (P. farinosa) is a rare and critically endangered species. Currently, it occurs only in one location in the area of the Jaworki village in Radziejowa Range (of Beskid Sądecki mountains). This is the last of the nine previously existing locations, and the only one occurring in the mountains. To maintain the species, as well as the moutain fen on which it grows, a multiannual conservation program has been implemented, including, among other measures, conducting environmental monitoring and performing active protection procedures. In 2012–2014, studies were carried out, aiming to identify the phenology of P. farinosa in its natural location amid other elements of local flora, and to elaborate reasonably accurate forecast methods of its phenological phases, in relation to the performed procedures. One of the methods was based on comparing subsequent phenological phases of P. farinosa, mainly the dates of flowering and opening of the fruits, with the dates of flowering of other species that commonly occur in the vicinity. On the basis of temperature data from the IMGW meteorological station in Krościenko nad Dunajcem, available via the Internet, an attempt to forecast the phenophases of P. farinosa has also been made, based on the developed network of nearby meteorological stations. A degree-days method was used. Prior to that, a value of base temperature (Tb) characteristic for P. farinosa was assessed, as necessary for further calculations, and the values of SAT (Sum of Active Temperatures, using the formula for GDD values) have been determined for the dates of occurrence of subsequent phenological phases of P. farinosa. These parameters were calculated using temperature data recorded at the location. During the observations, it was established that the dates of flowering for P. farinosa were dependent on the air temperatures during spring. The flowering period of the population in Jaworki took place in the months of April through to June, and it did not exceed 7.5 weeks. P. farinosa is one of the earliest blooming species in that location. Other species, also flourishing during the blooming thereof, included Eriophorum angustifolium, Caltha laeta, Chrysosplenium alternifolium, Oxalis acetosella, and Primula elatior. The full bloom of P. farinosa lasted for about 2 weeks, and it took place between the end of April and the end of the second decade of May. During its full bloom, in that same location, Cardamine pratensis, Geum rivale, and Valeriana simplicifolia also flourished. Trees and bushes from the rose (Rosaceae) family proved to be especially useful in the forecasting of P. farinosa flowering period. During the flowering of P. farinosa, in lower locations, species from the Prunus and Cerasus genera subsequently flourished, followed by the Malus, Sorbus, and Crataegus genera. The opening of P. farinosa fruits was observed in the last days of June or at the beginning of July. The date of commencement and duration of this phase is probably subject also to the degree of air humidity. Although in this period numerous species flourish such as Ononis arvensis, Valeriana sambucifolia, Cichorium intybus, Melilotus alba, Achillea millefolium, Daucus carota, Geranium pratense, and Agrimonia eupatoria, the forecasts based on those are not accurate. When forecasting this phase, as well as the majority of other phases, the SAT value calculation based on the degree-days method works well. The Tb base temperature (threshold temperature) for P. farinosa from Jaworki, determined for its calculation, is 0.75°C. However, for the calculation purposes, the rounded value of Tb = 1.0°C can also be used. When adopting the value of Tb = 0.75°C for calculations, the full bloom of P. farinosa falls within the period in which the SAT values remain between 310°C and 469°C, the optimum (culmination) of the full bloom occurs at about 408°C, and the beginning of capsules opening and release of P. farinosa seeds occur when the SAT values reach 1049°C. For Tb = 1.0°C the full bloom falls within the period in which the SAT values are between 295°C and 449°C, the optimum of full bloom occurs at 390°C, and the capsules begin opening at 1018°C. When using this method, the differences between the forecasted and the observed dates of P. farinose blooming were between –4 and +3 days, and the beginning of opening of its fruits, between –1 and 0 days. In case of no temperature data available from the given location, the forecasting can be also performed based on the data from the IMGW meteorological station in Krościenko. The accuracy of calculations is increased through the implementation of appropriate temperature data adjustments, resulting from the difference of location and height. The temperatures in Jaworki are 2°C lower compared to the station in Krościenko. The dates determined in this way are less accurate than those determined directly at the location, and they differ from the actual dates: in case of full bloom, the difference is in the range of –6 to +2 days, and in case of the beginning of capsules’ opening, it is –2 to –1 days. Probably, it is also possible to implement forecasting based on the data from new automated meteorological stations situated closer to the location, but this can be done only after the adjustment appropriate for every station has been determined and implemented. As demonstrated, the elaborated forecasting methods of P. farinosa phenological phases at the location in Jaworki (Beskid Sądecki) are sufficiently accurate and they may be used in the future as a tool supporting the implementation of measures related to active protection of the species.

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Books on the topic 'Relative humidity'

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