The system operates via a touch-sensitive screen and extremes of temperature can create real havoc.
Response surface analysis was applied to screen the effects of temperature and time of microwave pretreatment on matter solubilisation.
For induction in the presence of kanamycin, see Supplementary Fig. S10C and D. Hou et al., in their report of a screen for temperature-sensitive mutations in EF-G, document two mutations: fusA100 (Fusand02D) and fusA101 (fusA1015P).
As has been shown for SARS, entry screening methods are unlikely to detect more than 10% of imported infections and the positive predictive value of temperature screening is low especially at the beginning of a pandemic [4], [5].
Catalyst screening results and influence of temperature, pressure, catalyst loading and pH are reported as d-lactose was either catalytically hydrogenated to lactitol or oxidized to lactobionic acid.
Most of these screening efforts involved measurement of temperature, either with infrared detection devices or with plain thermometers.
Either of the following were required for a patient to satisfy the screening criteria: all four of temperature greater than 38.3°C or less than 35.6°C rectally, respirations greater than 20/min or mechanical ventilation, heart rate greater than 90 beats/min, and clinical evidence of infection; or one or more blood cultures positive for a pathogen at 48 hours following admission.
The same screen for suppressors of temperature-sensitive mutants of Abd1 also identified a ubiquitin-conjugating enzyme, cdc34 [ 31].
Two available mutants were used to assess the power of the screen; a temperature sensitive mutant, F-P2, with a conditionally lethal, reversible egress defect, and a mutant wherein the perforin PLP1 is knocked out displaying a constitutive, delayed egress defect.
