Flow diagram representing bromeliad death by overcrowding within the Bromeliad-death procedure. by Alexandra M. Campbell (3284094)

Variables for the bromeliad agent representing a single <i>T. utriculata</i> rosette. by Alexandra M. Campbell (3284094)

<i>Tillandsia utriculata</i> death rate data by size class. by Alexandra M. Campbell (3284094)

Flow diagram illustrating the sequence of procedures executed during one time step defined as tick, each of which represents one week. by Alexandra M. Campbell (3284094)

ABM NetLogo File. by Alexandra M. Campbell (3284094)

Lifespan of a single <i>T. utriculata</i> rosette. by Alexandra M. Campbell (3284094)

PRCC values (with <i>p</i>-values in parentheses) for the median final population size and difference in mean MSI at the final time, without weevil predation and with weevil predat... by Alexandra M. Campbell (3284094)

Each square gives extinction probability p (AB) or median population change d (CD) for 100 simulations at . by Alexandra M. Campbell (3284094)

Distribution of population at final time (left) and change in mean MSI at final time (right) from simulations across 1000 parameter sets when weevils are absent (red) and with weev... by Alexandra M. Campbell (3284094)

Histograms of (A) distance measured in meters to nearest neighboring tree given bin widths of 2 m (<i>n</i> = 44), and (B) basal areas of all sampled trees (<i>n</i> = 58; bin widt... by Alexandra M. Campbell (3284094)

Distribution of final population size (A) and mean change in mean MSI over time (B) over 100 simulations for each parameter set shown in Table 3 in the absence of weevils (left) an... by Alexandra M. Campbell (3284094)

Variables of trees located at coordinates . by Alexandra M. Campbell (3284094)

Global parameters and variables for the model. by Alexandra M. Campbell (3284094)

Variables of patch located at coordinates . by Alexandra M. Campbell (3284094)

MRSP Data collected in March 2018. by Alexandra M. Campbell (3284094)

Solid Cure of Poly(phenylene sulfide): Competition between Increasing Nucleation Density and Decreasing Growth Rate by Hong Yin (20329)

“…It was found that although primary nucleation density increases with cure time for both groups, <i>T</i>_c showed a decreasing trend for cured acid-treated PPS while an increasing trend for cured pristine PPS. …”

Solid Cure of Poly(phenylene sulfide): Competition between Increasing Nucleation Density and Decreasing Growth Rate by Hong Yin (20329)

“…It was found that although primary nucleation density increases with cure time for both groups, <i>T</i>_c showed a decreasing trend for cured acid-treated PPS while an increasing trend for cured pristine PPS. …”

Increased sedimentation rates in fast-settling mutants is independent of temperature. by Omaya Dudin (3926825)

“…<p>(A) Sedimentation rates of <i>S</i>. <i>arctica</i> AN and evolved mutants during the life cycle at 12°C. …”

Rapid mitotic growth increases rates of mtDNA loss. by Tuc H. M. Nguyen (9422862)

“…Colony sizes (arbitrary units) are reported as differences in colony size formation on solid media. <b>C</b>. Growth rates and <i>petite</i> frequencies increased as a result of increased glucose concentration and temperature. …”

Comparison of different methods to calculate volume increase and calcification rates. by Ines D. Lange (8701818)

“…<i>Y-axes</i>: Best estimate volume increase (A and B) was measured directly between overlying surface meshes and multiplied by skeletal densities to yield best estimate calcification rates (C and D). …”