Fig. 1 Life cycle and seasonal changes in the daily profile of body temperature variation in the tegu lizard, with concomitant changes in the outside and.

Slides:

Advertisements

Similar presentations

3 Main Climate Zones 17.2 and 17.3.

Advertisements

Warm-Up!!!!!!!!!!! What country has the coldest average temperature in the world? What country has the hottest average temperature in the world? Where.

Seasons – A season is a repeating pattern of changes over time Talk with your friends… – How many seasons can you name?

CLIMATE AND CLIMATE ZONES. WHAT IS CLIMATE?  An area’s long-term weather patterns  Measured by average temperature and precipitation  Weather is the.

All About Weather Hassler Elementary 2 nd Grade. What is a weather change that repeats over and over? A.The water cycle B. A weather report C. A weather.

Weather Data Summary.

A season is a time of the year.

Climate Notes Climate is the description of long-term weather patterns. described according to temperature ranges (seasonal variations) and seasonal changes.

Talking about weather and seasons

Global & Regional Climate Change

Köppen Classification System

The winters are long and the summers, while warm, are fairly short

3 Main Climate Zones 17.2 and 17.3.

What are Seasons? ESSENTIAL QUESTION UNIT 5 WEATHER.

Weather vs. Climate? Weather: Atmospheric conditions (temperature, rainfall, etc…) at a specific point in time and specific place. Climate: Atmospheric.

3 Main Climate Zones 17.2 and 17.3.

Basic Temp Terms.

So we can say that the climate in London is temperate

What are Seasons? ESSENTIAL QUESTION UNIT 5 WEATHER.

Station 1 Lagoon nutrient concentrations are typically one-tenth of pit nutrient concentrations. Pit nutrients are typically of N-P2O5-K2O. What.

Climate: Causes and Classification

What is climate? Write your own definition of the word climate.

3 Main Climate Zones 17.2 and 17.3.

Four seasons T T P 2012.

Temp determinations Daily mean temp Daily temp range Monthly mean temp

Season & Weather Unit 5 The four seasons.

Comparison of network robustness measures over a larger time window

Fig. 2 Magnetic field induced transitions in the lowest temperature (1

Climate: Causes and Classification

Fig. 1 Biomass over time of C3 grasses and C4 grasses at ambient and elevated CO2. Biomass over time of C3 grasses and C4 grasses at ambient and elevated.

Fig. 2 Absolute recovery of species richness and relative recovery of species richness and composition in relation to stand age for Neotropical secondary.

Fig. 2 Effects of DMS responsiveness and nesting behavior on plastic ingestion in procellariiform seabirds. Effects of DMS responsiveness and nesting behavior.

24 h mean of body temperature plotted against 24 h mean of air temperature (A), and 24 h amplitude of body temperature plotted against 24 h range of air.

Fig. 1 Demographic shifts in knowledge producers.

Order parameter θ as a function of time for the five events analyzed

Fig. 3 Piezoresistive e-skin with interlocked microdome arrays for simultaneous detection of static pressure and temperature. Piezoresistive e-skin with.

Fig. 4 Comparison of East African paleotemperature data with CMIP5/PMIP3 model output. Comparison of East African paleotemperature data with CMIP5/PMIP3.

Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.

Fig. 4 The performance of quasi–solid state Na-CO2 batteries with rGO-Na anodes. The performance of quasi–solid state Na-CO2 batteries with rGO-Na anodes.

Electrochemical characterization of pV4D4-coated silicon electrodes

Fig. 6 Longevity and mechanical perturbation of a liquid membrane.

3 Main Climate Zones 17.2 and 17.3.

Fig. 3 Transport characterization of dry-assembled devices.

Thermogenesis correlates with HRs in tegus in natural enclosures

Fig. 2 Raman characterization of CVD-grown graphene.

Fig. 1 Temporal patterns of electric energy demand.

Fig. 4 Mechanism for the projected decrease in the Atlantic Niño–Pacific connection. Mechanism for the projected decrease in the Atlantic Niño–Pacific.

Fig. 3 Characterization of PCNs and PCN-loaded microneedles.

Fig. 2 Stabilizing the lithium-electrolyte interface.

Fig. 3 Plumage brightness (PC1) for each sex in relation to morphological, ecological, and behavioral traits. Plumage brightness (PC1) for each sex in.

Fig. 3 Double-resonance solid-state NMR data of ceria nanoparticles.

Fig. 7 Global change in the collective mass for wild mammals, humans, cattle, and all livestock for the years 1900–2050. Global change in the collective.

Fig. 1 Fractional coverage of the mapping method used in this study.

Fig. 3 The material choices and durability of the STENG.

Fig. 2 XRD, SEM-EDX, and three-dimensional optical characterization.

Thermomechanical characterization of the elasticity and plasticity

Fig. 5 Density plots showing the relationship between growth responses to extreme events and site-level mean precipitation from all sites (N = 1314). Density.

Fig. 4 Behavior of resistance peak near density nm = 5.

Fig. 3 Voltage-driven phase switching in a 1T-TaS2 nano-thick crystal.

Fig. 4 Relationship of plastic ingestion and nesting behavior.

Fig. 3 Global and basin-averaged sampling error compared with reconstructed temperature change. Global and basin-averaged sampling error compared with.

Fig. 2 Daily TNC pickups and drop-offs for an average Wednesday in fall 2016 (1). Daily TNC pickups and drop-offs for an average Wednesday in fall 2016.

Fig. 2 Infrared thermal images of tegu lizards following prolonged absence of solar heat gain. Infrared thermal images of tegu lizards following prolonged.

Fig. 6 Net primary productivity after nuclear war.

Fig. 3 The relationships between air temperature, atmospheric circulation, AISMR, and CESCF for the periods 1967–1990 and 1991–2015. The relationships.

Fig. 4 Responses of forest growth to seasonal precipitation extremes.

Fig. 2 Design and characterization of rGO-Na anode.

Presentation transcript:

Fig. 1 Life cycle and seasonal changes in the daily profile of body temperature variation in the tegu lizard, with concomitant changes in the outside and burrow temperatures. Life cycle and seasonal changes in the daily profile of body temperature variation in the tegu lizard, with concomitant changes in the outside and burrow temperatures. (A to C) The annual cycle (A) of tegu lizards is characterized by a reproductive season of mating and egg laying, a postreproductive season during the wet, warm summer months, a period of prolonged entrance into burrows during inclement weather, before a dormant period during the dry winter months. Averaged (±SEM; n = 4) monthly values (B) of tegu, burrow, and sunlight are shown plotted against hour of the day for the four periods of the year. The temperature difference (ΔT) between tegu and burrow temperature at the coldest time of the day (typically 4:00 a.m. to 6:00 a.m.) when tegus are inside their burrows is shown for the four different months (C). The temperature difference between tegu and burrow was greatest during the reproductive period in the month of October, as denoted by the asterisk (F3,9 = 43.2; P < 0.001). Glenn J. Tattersall et al. Sci Adv 2016;2:e1500951 Copyright © 2016, The Authors