Crop ScienceVolume 42, Issue 5 p. 1751-1752 Registrations of Cultivar Registration of ‘Shiny Crow’ Black Bean M.A. Brick, Corresponding Author mbrick@lamar.colostate.edu Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Corresponding author (mbrick@lamar.colostate.edu)Search for more papers by this authorH.F. Schwartz, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorJ.B. Ogg, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorJ.J. Johnson, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorF. Judson, Fruita Res. Stn., 1910 L Road, Fruita, CO, 81521Search for more papers by this authorC.J. Pearson, Fruita Res. Stn., 1910 L Road, Fruita, CO, 81521Search for more papers by this author M.A. Brick, Corresponding Author mbrick@lamar.colostate.edu Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Corresponding author (mbrick@lamar.colostate.edu)Search for more papers by this authorH.F. Schwartz, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorJ.B. Ogg, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorJ.J. Johnson, Dep. of Bioagricultural Sci. and Pest Mgmt., Colorado State Univ., Ft. Collins, CO, 80523Search for more papers by this authorF. Judson, Fruita Res. Stn., 1910 L Road, Fruita, CO, 81521Search for more papers by this authorC.J. Pearson, Fruita Res. Stn., 1910 L Road, Fruita, CO, 81521Search for more papers by this author First published: 01 September 2002 https://doi.org/10.2135/cropsci2002.1751a Research supported by the Colorado Agric. Exp. Stn., Colorado Dry Bean Administrative Committee, and Colorado Seed Growers Assoc. Registration by CSSA. Read the full textAboutPDF ToolsRequest permissionExport citationAdd to favoritesTrack citation ShareShare Give accessShare full text accessShare full-text accessPlease review our Terms and Conditions of Use and check box below to share full-text version of article.I have read and accept the Wiley Online Library Terms and Conditions of UseShareable LinkUse the link below to share a full-text version of this article with your friends and colleagues. Learn more.Copy URL Share a linkShare onEmailFacebookTwitterLinked InRedditWechat No abstract is available for this article. Volume42, Issue5September–October 2002Pages 1751-1752 RelatedInformation

Although Hot molded urethane foam has been produced commercially for almost two decades, hi h resilient ( HR) foam, which is sometimes referred to as cold foam, is a relatively recent development (1, 2, 3). Whereas Hot foam is produced at a temperature of 150-175 ° C (300350°F), the processing of HR foam is in the vicinity of 60 ° C ( 140 &dquo; F ) . The purpose of this report is to point out important differences in the effect of humidity on physical properties of these foams and to suggest polymer differences that may be responsible.

Three models are presented in which stochastic simulation models are used to construct simulations of systems composed of unreliable components. The releability of the resultant systems is inferred from behavior of these simulation models.

The diurnal pattern of carbon dioxide exchange is described for plants of cultivars Vernal and Moapa alfalfa (Medicago sativa L.) grown at day/night temperatures of 30/25C and 20/15C, an irradiance of 25 nanoEinsteins cm−2 s−1 (400–700 nm), and a day length of 15.5 h. The net carbon dioxide intake (NCI) of the tops reached 90% of its maximum value after 4–5 h of illumination at 20/15C, but after only 1–2 h at 30/25C; by contrast, NCI of the tops declined after 11–14 h from the start of the photoperiod at 20/15C and after 8.5–10.5 h at 30/25C. Net carbon dioxide output (NCO) of the tops increased throughout the dark period at 20/15C, but remained constant at 30/25C. NCO of the roots remained constant throughout the photoperiod at 20/15C, and increased linearly for 4–8 h at 30/25C. Similarly, NCO of the roots remained constant throughout the dark period at 20/15C, but changed with time (decreased) at 30/25C.

Effects of temperature on the cumulative gain and distribution of dry matter are described for the primary growth of alfalfa (Medicago sativa L.) cults Vernal and Moapa at an irradiance (400–700 nm) of 25 nE cm−2 s−1. Whole plant dry weights and leaf areas increased curvilinearly with time. Weight and area increments were faster, root-top weight increments were higher, and canopies were more erect, at 15/10 C and 20/15 C day/night temperatures than under warmer conditions. In contrast, rates of leaf, node, and flower production were slower at low temperatures. Differences between low and high temperatures were similar to those recorded in the field between first and third harvests in the cool humid zone of North America.

The temperature response curves for net carbon dioxide exchange are described for plants of cultivars (cvs.) Vernal and Moapa alfalfa (Medicago sativa L.) grown at day/night temperatures of 30/25C and 20/15C, an irradiance of 25 nE cm−2 s−1 (400–700 nm), and a day length of 15.5 h. Net carbon dioxide intake (NCI) of the tops decreased with increasing temperature from 20 mg dm−2 h−1 at 10C to 5 mg dm−2 h−1 at 40C. The nature of the NCI-temperature response curve was affected by pretreatment temperature, with NCI being lower at all temperatures except 10C after growth at 20/15C. Photorespiration, which reached its maximum value at a higher temperature (20–30C) than that required for maximum NCI, accounted for 22% of the gross carbon dioxide intake (net carbon dioxide exchange in an oxygen-free atmosphere) at 10C and 55% at 40C. Pretreatment affected the relationship between net carbon dioxide output (NCO) and temperature, with NCO being higher at 10C but lower at 30C after growth at 20/15C as compared to 30/25C.

Some properties of Jost functions are reviewed for real and complex angular momentum and compared to the determinantal expansion. The exact phase shifts and Jost functions in the complexk-plane are calculated forS- andP-waves and compared to the first and second-order determinantal expansion.