Sentences with phrase «at seasonal temperature»

Sure enough, looking at seasonal temperature anomalies we can see various curves like this:
-- Fermentation at seasonal temperatures results in capsules that have a three - year shelf - life at room temperature.
I will also add this that looks at seasonal temperatures on a more fine - grained decadal scale than the one you linked.

Not exact matches

The fare that appeals most during warm weather is fresh, seasonal, and tastes best at room temperature.
Zara has a great military blazer at the moment that's the perfect lightweight military jacket to combat the awkward seasonal summer - into - fall temperature change.
Meanwhile, permafrost observers the world over will take measurements in boreholes at least 30 meters (100 feet) deep — the depth where temperatures do not fluctuate during seasonal cycles — though some will stretch much deeper.
The team used real - time seasonal rainfall, temperature and El Niño forecasts, issued at the start of the year, combined with data from active surveillance studies, in a probabilistic model of dengue epidemics to produce robust dengue risk estimates for the entire year.
The researchers also looked at deviations of daily temperatures from seasonal averages in trying to determine the effect of anomalies on crime rates.
The data showed that the region experienced minimal seasonal variation in temperature and rainfall; in other words, at most a very weak monsoon.
At the moment the company is working with NASA to develop technology that would predict how small - scale, seasonal shifts in temperature as well as large - scale climate change influence the presence of bacteria in the soil, air and water around crops.
By looking at variables such as day and night temperatures and seasonal rainfall and vegetation types, for instance, researchers can identify the ecological niches best suited to certain insects.
After this process was used by the researchers to determine new normal conditions for global average temperatures, it was used again to examine record hot seasonal temperatures at a regional level.
At local scales and over shorter periods, annual streamflow responds to seasonal changes in climate variables (e.g., temperature, precipitation) and related processes such as evapotranspiration.
Sadly the 50 - 60 degree weather we have been experiencing in central Ohio for the past week or so has been replaced by the seasonal arctic temperatures one would expect at this time Keep Reading
But below - seasonal temperatures combined with too many timid motorists crawling along at a snail's pace at the first sign of a snowflake have had a negative effect on my psyche.
Changes in the outdoor temperature at every season will require you to make seasonal adjustments to the temperature and humidity controls for your reptile or amphibian.
[Response: Hansen et al. look at seasonal anomalies, especially those for the average temperature of June - July - August.
In temperate climates strong seasonal waterborne infections like the norovirus, rotavirus, salmonella, campylobacter and — differing from the usual dogma — influenza are mainly triggered by drinking water, dependent on the water's temperature (in Germany it is at a minimum in February and March and at a maximum in August).
In temperate climates the lethal H5N1 virus will be transferred to humans via cold drinking water, as with the birds in February and March 2006, strong seasonal at the time when drinking water has its temperature minimum.
The reason is that if an ice sheet is at a temperature of say ~ 20 oC where it never undergoes a seasonal melt, then even a very large temperature increase (say 10 oC) isn't going to make it melt either!
Re 9 wili — I know of a paper suggesting, as I recall, that enhanced «backradiation» (downward radiation reaching the surface emitted by the air / clouds) contributed more to Arctic amplification specifically in the cold part of the year (just to be clear, backradiation should generally increase with any warming (aside from greenhouse feedbacks) and more so with a warming due to an increase in the greenhouse effect (including feedbacks like water vapor and, if positive, clouds, though regional changes in water vapor and clouds can go against the global trend); otherwise it was always my understanding that the albedo feedback was key (while sea ice decreases so far have been more a summer phenomenon (when it would be warmer to begin with), the heat capacity of the sea prevents much temperature response, but there is a greater build up of heat from the albedo feedback, and this is released in the cold part of the year when ice forms later or would have formed or would have been thicker; the seasonal effect of reduced winter snow cover decreasing at those latitudes which still recieve sunlight in the winter would not be so delayed).
There can / will be local and regional, latitudinal, diurnal and seasonal, and internal variability - related deviations to the pattern (in temperature and in optical properties (LW and SW) from components (water vapor, clouds, snow, etc.) that vary with weather and climate), but the global average effect is at least somewhat constrained by the global average vertical distribution of solar heating, which requires the equilibrium net convective + LW fluxes, in the global average, to be sizable and upward at all levels from the surface to TOA, thus tending to limit the extent and magnitude of inversions.)
Additionally, the publication aims to highlight the full range climate - related health issues and risks (i.e. nutrition, NCDs, air pollution, allergens, infectious diseases, water and sanitation, extreme temperatures and weather, etc.) where health decision - making can benefit from climate and weather knowledge at historic, immediate, seasonal, or long - term time scales.
Moreover, the seasonal, regional, and atmospheric patterns of rising temperatures — greater warming in winters than summers, greater warming at high latitudes than near the equator, and a cooling in the stratosphere while the lower atmosphere is warmer — jibe with what computer models predict should happen with greenhouse heating.
(There may be some kinds of trend in the model, for example seasonal trends, but they are all «overruled» at every measured temperature.).
ECHAM3 at T42 improved the seasonal cycle of surface temperature in seven regions, compared to the driving AOGCM, but overall surface temperature was too high (by 2 to 5ºC).
The three different ozone databases yield changes in tropical lower stratospheric temperatures that differ by more than a factor of two at 70 mbar, although all have qualitatively similar seasonal cycles.
Thus the first year (s) temperature change is the most responsible for the first year (s) change in CO2 increase, but as the temperature influence is limited in time (a different, but constant temperature again gives a constant seasonal cycle, but at a different level), the next years that will not give a change in increase speed anymore.
If one looks at the ocean / water temperatures http://weather.unisys.com/surface/sst.html there are enormous differences between the tropics, temperate and north, and enormous seasonal variations during the year which will affect CO2 absorption and emission, and there is a lot of biological activity in seas and waters that also are involved.
Have a look at the seasonal changes at Mauna Loa: The influence of temperature is clear: warmer in this case means more CO2 eaten away by vegetation and reverse when temperatures in the NH drop.
See http://data.giss.nasa.gov/gistemp/graphs/ (the seasonal mean temperature change graph at the bottom) to see what I mean.
Specifically, the cloud cover is multiplied by the factor 1 + c T, where T, computed every time step, is the deviation of the global mean surface air temperature from the long - term mean in the model control run at the same point in the seasonal cycle and c is an empirical constant.
Boreholes do not retain any information relating to surface temperature at any depth beyond the seasonal influence of the Sun.
They suggest that management strategies currently employed in marginal production areas that moderate temperatures and offset mismatches between the needs of the plant at various growth stages and seasonal weather conditions may be useful adaptation strategies.
Climate scientists hate it when people show real temperature because it is impossible to see much warming when you look at the seasonal changes in the actual temperature.
The global warming signal itself is a multidecadal feature of the climate, but just like the seasonal example above, it has been possible at times to take one period of one temperature record - surface air temperatures in most cases - and do a «January - February» job with it, thereby making the claim that temperatures are flatlining or even cooling.
Have a look at Cohen et al. (2012) Asymmetric seasonal temperature trends.
One explanation for the seasonal offset is that the large summertime snow / ice change alters ground temperatures, and these ground temperature changes are felt more at ground - level during winter when the surface atmospheric layer is most stable.
Season or specific months: (A) Seasonal temperatures are of particular interest because Polar Regions at high latitudes are an outstanding example of the considerable impact and influence of the sun decreases in wintertime as far down as the North - and Baltic Sea (both above 50 ° North).
The impacts of the marked seasonal variability of factors such as net radiation and / or temperature at high latitude sites are of far more importance for tree growth than the small seasonal variation in CO2 (a well - mixed gas).
A = maximum temperature measurement, at Airport B = minimum temperature measurement, at Airport UHI * - a = slowly varying seasonal value of the UHI, at Airport UHI * - s = slowly varying seasonal value of the UHI, in Suburbia Tmax - a = «true» maximum temperature, at Airport Tmax - s = «true» maximum temperature, in Suburbia
New record highs have been set for monthly and seasonal average temperatures across Australia at 12 times the rate of new record lows.
Positive forcing at seasonal to inter-annual scales leads to an average global surface temperature drop from La Nina influence but recharging of OHC (longer term gain), while reduced forcing allows El Nino conditions and temporary peaks in global average temperature, and OHC reduction (longer term loss).
As shown in Figure 3 above, light dry soils experience greater seasonal temperature swings at a given depth than wet soils.
The following are more of interest: — «Winter Sampling of Shallow Firn Air at the South Pole to Understand Processes Affecting Firn Atmospheric Histories and Ice Core Gas Records» by Severinghaus (2000), — «Thermal fractionation of air in polar firn by seasonal temperature gradients» by Severinghaus, Grachev & Battle (2001), — «Severinghaus et al. «Fractionation of gases in polar ice during bubble close - off: New constraints from firn air Ne, Kr and Xe observations» by Severinghaus & Battle (2006), but all follow the same line of reasoning.
These unique fingerprints are easier to see by probing beyond a single number (such as the average temperature of Earth's surface), and looking instead at the geographical and seasonal patterns of climate change.
Scientists also factored long - term, climate change trends into the three - month seasonal outlook by looking at the last 10 to 15 years of temperature and precipitation across the country.
Scientists use permafrost temperature, measured at a depth where seasonal variations cease to occur, as an indicator of long - term change and to represent the mean annual ground temperature.
PCIC has made seasonal maps of average temperature and total precipitation departures from the 30 - year climatology at observational weather stations in BC, for all months from 1972 onward.
Therefore, as in our time - series analyses of annual proportions of male births and stillbirths, we found no support for the hypothesis that seasonal variation in ambient temperature at the time of conception is related to the proportion of male births in New Zealand.
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