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watch the thematic videoDownload + Install Sketchup 2020 Full Crack 0.2 - s o.o - 2C 1.2 -] O O U> « §1-0- > a: "S .E 0.8 O !- a: = it0-6' = £0.4 Q. 0.2 hma vpn premium activation code ❌ W (0 S 0.0 2C a. Low-Pressure Lamp » 250 300 Wavelength 350 400 (nm) b. Medium-Pressure Lamp ^-^wJ/LJU/V 0 250 ill AJJUJL 300 Wavelength I 1 A 350 400 (nm) Source: Sharpless and Linden (2001) MP lamps emit a wide range of UV wavelengths from 200 to 400 nm (Figure 2.13b). The combination of free electrons and mercury in the lamp creates a broad continuum of UV energy below 245 nm. Electron transitions in the mercury cause the peaks in the spectrum. Dr. Hardware 2002 Version: 3.0.0e crack serial keygen All UV lamps also emit light in the visible range. Visible light can promote algal growth as discussed in Section 188.8.131.52. Figure 2.14 shows the output of LP and MP lamps superimposed on the DNA absorption spectrum. In Figure 2.14, the DNA absorbance is plotted relative to the maximum absorbance in the range (260 nm), and the lamp outputs are presented on a relative scale. In absolute terms, however, the intensity and power of LP and MP lamps differ significantly (see Table 2.1 for more information on lamp operating characteristics). UV Disinfection Guidance Manual For the Final LT2ESWTR 2-20 November 2006
------- 2. Overview of UV Disinfection Figure 2.14. UV Lamp Output and its Relationship to the UV Absorbance of DMA 250 Wavelength (nm) 300 Source: Courtesy of Bolton Photosciences, Inc. 184.108.40.206 Lamp Sensitivity to Power Quality A UV lamp can lose its arc if a voltage fluctuation, power quality anomaly, or power interruption occurs. For example, voltage sags that vary more than 10 - 30 percent from the nominal voltage for as few as 0.5 - 3 cycles (0.01 - 0.05 seconds) may cause a UV lamp to lose its arc. The most common sources of power quality problems that may cause UV lamps to lose their arcs are as follows: . Faulty wiring and grounding Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. Off-site accidents (e.g., transformer damaged by a car accident) . Weather-related damage Animal-related damage . Facility and equipment modifications . Starting or stopping equipment with large electrical needs on the same circuit at the water plant . Power transfer to emergency generator or alternate feeders LP lamps generally can return to full operating status within 15 seconds after power is restored. LPHO and MP reactors that are more typically used in drinking water applications, however, exhibit significant restart times if power Dr. Hardware 2002 Version: 3.0.0e crack serial keygen interrupted. The start-up time for lamps should be considered in the design of UV disinfection systems as start-up time can contribute to off-specification operations (see Section 3.4.1). The start-up and restart behaviors for LPHO and MP lamps are summarized in Table 2.3. UV Disinfection Guidance Manual For the Final LT2ESWTR 2-21 November 2006
------- 2, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. Overview of UV Disinfection Table 2.3. Typical Start-up and Restart Times for LPHO and MP Lamps Lamp Type LPHO MP Cold Start2 total time: 4-7 minutes (min) (0-2 min warm-up plus 4-5 min to full power) total time: 1 Dr. Hardware 2002 Version: 3.0.0e crack serial keygen 5 min (No warm-up or cool down plus 1 - 5 min to full power4) Warm Start3 total time: 2-7 min (0-2 min warm-up plus 2-5 min to full power) total time: 4-10 min (2-5 min cool down plus 2-5 min to full power4) Information shown in table is compiled from Calgon Carbon Corporation, Severn Trent, Trojan, and WEDECO. Contact the manufacturer to determine the start-up and restart times for specific equipment models. 2 A cold start occurs when UV lamps have not been operating for a significant period of time. 3 A warm start occurs when UV lamps have just lost their arcs (e.g., due to voltage sag). 4 60 percent intensity is reached after 3 min. Source: Cotton et al. (2005) The effects of temperature can increase or decrease the times listed in Table 2.3 and should be discussed with the UV manufacturer. Individual manufacturers report that colder water temperatures (below 10 °C) can result in slower start-ups for LPHO lamps than those listed in Table 2.3. Conversely, MP manufacturers report shorter restart times with colder temperatures because the cold water accelerates the condensation of mercury (i.e., cool down), which is necessary for re-striking the arc. 220.127.116.11 Lamp Aging UV lamps degrade as they age, resulting in a reduction in output that causes a drop in UV dose delivery over time. Lamp aging can be accounted for with the fouling/aging factor (described in Section 3.4.5) in the design of the UV facility. Lamp degradation occurs with both LP and MP lamps and is a function of the number of lamp hours in operation, number of on/off cycles, power applied per unit (lamp) length, water temperature, and heat transfer from lamps. The rate of decrease in lamp output often slows as the lamp ages (Figure 2.15). The reduction in output occurs at all wavelengths across the germicidal range as shown in Figure 2.16, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, which is an example of MP lamp output reduction after 8,220 hours of operation. Preliminary findings from ongoing research into lamp aging at water and wastewater UV facilities shows that LPHO and MP lamp aging is non-uniform with respect to axial and horizontal output and varies greatly from lamp to lamp (Mackey et al. 2005). The lamp aging study by Mackey et al. is Dr. Hardware 2002 Version: 3.0.0e crack serial keygen ongoing, and any future findings from this or other studies should be evaluated and considered once results are available. UV Disinfection Guidance Manual For the Final LT2ESWTR 2-22 November 2006
------- Dr. Hardware 2002 Version: 3.0.0e crack serial keygen 2. Overview of UV Disinfection Figure 2.15. Reduction in UV Output of (a) LPHO and (b) MP Lamps Over Time a. Low-Pressure High Output Mercury Lamps b. Medium-Pressure Mercury Lamps DraftSight 2020 Crack Free Download Archives - SN 100% - 4-1 3 5- 90% - 3 o > 80% - 70% - C 110% -i SN 100% - ¥ * « * B- 90% - » 3 O > 80% - 7fW [U i 'hiii ' 'f l Automobiles--Performance--Handbooks, manuals, etc. j,m membrane and adjusting the pH before measuring the absorbance. For UV disinfection applications, however, A254 measurements should reflect the water to be treated. Therefore, water samples should be analyzed without filtering or adjusting the pH. More information on collecting A254 data is provided in Section 18.104.22.168, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. Although Standard Methods defines this measurement as Driver Booster torrent Archives absorption, this manual refers to it as UV absorbance because the latter term is widely used in the water treatment industry. UV Transmittance (UVT) has also been used extensively in the literature when describing the behavior of UV light. UVT is the percentage of light passing through material (e.g., a water sample or quartz) over a specified distance. The UVT can be calculated using Beer's law (Equation 2.1): UVT = 100* /n Equation 2.1 where UVT = UV transmittance at a specified wavelength (e.g., 254 nm) and pathlength (e.g., 1 cm) / = Intensity of light transmitted through the sample [milliwatt per centimeter squared (mW/cm2)] Io = Intensity of light incident on the sample (mW/cm2) UVT can also be calculated by relating it to UV absorbance using Equation 2.2: % UVT = 100*10~A Dr. Hardware 2002 Version: 3.0.0e crack serial keygen Equation 2.2 where UVT = UV transmittance at a specified wavelength (e.g., 254 nm) and pathlength (e.g., 1 cm) A = UV absorbance at a specified wavelength and pathlength (unitless) UV Disinfection Guidance Manual For the Final LT2ESWTR 2-5 November 2006
------- Total Commander 10.00 Crack With Keygen 2022 [Latest] 2. Overview of UV Disinfection UVT is typically reported at 254 nm because UV manufacturers and PWSs widely use A254. This manual assumes UVT is at 254 nm unless specifically stated otherwise. 2.3 Microbial Response to UV Light The mechanism of disinfection by UV light differs considerably from the mechanisms of chemical disinfectants such as chlorine and ozone. Chemical disinfectants inactivate microorganisms by destroying or damaging cellular structures, interfering with metabolism, and hindering biosynthesis and growth (Snowball and Hornsey 1988), Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. UV light inactivates microorganisms by damaging their nucleic acid, thereby preventing them from replicating. A microorganism that cannot replicate cannot infect a host. It is important that the assays used to quantify microorganism inactivation measure the ability of the microorganism to reproduce (Jagger 1967). For bacteria, assays measure the ability of the microorganism to divide and form colonies. For viruses, assays measure the ability of the microorganism to form plaques in host cells. For protozoan cysts, the assays measure the ability of the microorganism to infect a host or tissue culture. Assays that do not measure a response to reproduction may result in misleading information on the inactivation of microorganisms using UV light. This section describes how UV light causes microbial inactivation, discusses how microorganisms can repair the damage, and introduces the concept of UV dose-response, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. 2.3.1 Mechanisms of Microbial Inactivation by UV Light Nucleic acid is the molecule responsible for defining the metabolic functions and reproduction of all forms of life. The two most common forms of nucleic acid are deoxyribonucleic acid (DNA) and ribonucleic acid (RNA). DNA and RNA consist of single- or double-stranded polymers comprising building blocks called nucleotides (Figure 2.5). In DNA, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, the nucleotides are classified as either purines (adenine and guanine) or pyrimidines (thymine and cytosine). In RNA, the purines are the same as in DNA, but the pyrimidines are uracil and cytosine. As shown in Figure 2.6, the nucleotides absorb UV light at wavelengths from 200 to 300 nm, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. The UV absorption of DNA and RNA reflects their nucleotide composition and tends to have a peak near 260 nm and a local minimum near 230 nm. All purines and pyrimidines strongly absorb UV light, but the rate of UV-induced damage is greater with pyrimidines (Jagger 1967). Absorbed UV light induces six types of damage in the pyrimidines of nucleic acid (Setlow 1967, Snowball and Hornsey 1988, Pfeifer 1997). The damage varies depending on UV dose. The following three types of damage contribute to microorganism inactivation: UV Disinfection Guidance Manual 2-6 Xilisoft Video Converter Ultimate 7.0 crack serial keygen November 2006 For the Final LT2ESWTR
------- 2. Overview of UV Disinfection Figure 2.5. Structure of DMA and Nucleotide Sequences within DMA Hydrogen Bonded Nitrogenous Base Pairs (A, T, G, C) Dr. Hardware 2002 Version: 3.0.0e crack serial keygen Sugar- Phosphate Backbone DMA STRUCTURE -A-T-G-C-G-A-T-C- III I I I I I -T-A-C- G-C-T-A-G- Purines A = Adenine G = Guanine DMA SEQUENCE Pyrimidines T= Thymine C = Cytosine Figure 2.6. UV Absorbance of Nucleotides (left) and Nucleic Acid (right) at pH 7 1.0- o.6H rj 2 0.0' \ \ \\ Cytosine //*A '. /: \ ', Adenine Guanine '--V A ^ \ v-* Mhymme vV» \ 1.0 85" 0.8- c n
THE CAR HACKER’S HANDBOOK
A Guide for the Penetration Tester
THE CAR HACKER’S HANDBOOK. Copyright © 2016 by Craig Smith.
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------- 2. Overview of UV Disinfection Chapter 2 provides an overview of UV disinfection, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. This overview includes discussion of basic chemical and physical principles, the components of UV equipment, and performance monitoring for UV facilities. The overview material in Chapter 2 is intended to present generally accepted facts and research results related to UV disinfection. The material is not intended to provide guidance or recommendations for designing, validating, or installing UV disinfection facilities. Some guidance is included in this chapter to enhance the information presented, but any guidance that appears in this section is also documented in the appropriate subsequent chapters in this manual. Chapter 2 covers: 2.1 History of UV Light for Drinking Water Disinfection 2.2 UV Light Generation and Transmission 2.3 Microbial Response to UV Light 2.4 UV Disinfection Equipment 2.5 Water Quality Effects and Byproduct Formation 2.1 History of UV Light for Drinking Water Disinfection UV disinfection is an established technology supported by decades of fundamental and applied research and practice in North America and Europe. Downes and Blunt (1877) discovered the germicidal properties of sunlight. The development of mercury lamps as artificial UV light sources in 1901 and the use of quartz as a UV transmitting material in 1906 were Dr. Hardware 2002 Version: 3.0.0e crack serial keygen followed by the first drinking water disinfection application in Marseilles, France, in 1910. In 1929, Gates identified a link between UV disinfection and absorption of UV light by nucleic acid (Gates 1929). The development of the fluorescent lamp in the 1930s led to the production of germicidal tubular lamps. Considerable research on the mechanisms of UV disinfection and the inactivation of microorganisms occurred during the 1950s (Dulbecco 1950, Kelner 1950, Brandt and Giese 1956, Powell 1959). Although substantial research on UV disinfection occurred during the first half of the 20th century, the low cost of chlorine and operational problems with early UV disinfection equipment limited its growth as a drinking water treatment technology. The first reliable applications of UV light for disinfecting municipal drinking water occurred in Switzerland and Austria in 1955 (Kruithof and van der Leer 1990). By 1985, the number of such installations in these countries had risen to approximately 500 and 600, respectively. After chlorinated disinfection byproducts (DBFs) were discovered, UV disinfection became popular in Norway and the Netherlands with the first installations occurring in 1975 and 1980, respectively. As of the year 2000, more than 400 UV disinfection facilities worldwide were treating drinking water; these UV facilities typically treat flows of less than 1 million gallons per day (mgd) (USEPA 2000). Since 2000, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, several large UV installations across the United States have been constructed or are currently under design. The largest of these facilities includes a 180-mgd UV Disinfection Guidance Manual 2-1 November 2006 For the Final LT2ESWTR
------- PHPMaker 2022.0.0 Crack Full Version Free Download 2. Overview of UV Disinfection facility in operation in Seattle, Washington, and a 2,200-mgd facility under design for the New York City Department of Environmental Protection (Schulz 2004). Because of the susceptibility of Cryptosporidium to UV disinfection and the emphasis in recent regulations on controlling Cryptosporidium, the number of public water systems (PWSs) using UV disinfection is expected to increase significantly over the next decade. 2.2 UV Light Generation and Transmission The use of UV light to disinfect drinking water involves (1) generating UV light with the desired germicidal properties and (2) delivering (or transmitting) that light to pathogens. This section summarizes how UV light is generated and the environmental conditions that affect its delivery to pathogens. 2.2.1 Nature of UV Light UV light is the region of the electromagnetic spectrum that lies between X-rays and visible light (Figure 2.1). The UV spectrum is divided into four regions: vacuum UV [100 to 200 nanometers (nm)]; UV-C (200 to 280 nm); UV-B (280 to 315 nm); and UV-A (315 to 400 nm) (Meulemans 1986). UV disinfection primarily occurs due to the germicidal action of UV-B and UV-C light on microorganisms. The germicidal action of UV-A light is small relative to UV-B light and UV-C light; therefore, very long exposure times are necessary for UV-A light to be effective as a disinfectant. Although light in the vacuum UV range can disinfect microorganisms (Munakata et al. 1991), vacuum UV light is impractical for water disinfection applications because it rapidly dissipates in water over very short distances. For the purposes of this manual, the practical Dr. Hardware 2002 Version: 3.0.0e crack serial keygen wavelength for UV light is defined as the range between 200 and 300 nm. The germicidal range is discussed further in Section 2.3.1. Figure 2.1, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. UV Light in the Electromagnetic Spectrum 100nm 400 nm Gamma Rays X-ray UV Visible Infrared 254 nm I Vacuum UV UV-C 28C UV-B nm 315 UV-A nm 100 nm 200 nm 300 nm 400 nm UV Disinfection Guidance Manual For the Final LT2ESWTR 2-2 November 2006
------- 2. Overview of UV Disinfection Typically, UV light is generated by applying a voltage across a gas mixture, resulting in a discharge of photons. The specific wavelengths of light emitted from photon discharge depend on the elemental composition of the gas and the power level of the lamp. Nearly all UV lamps currently designed for water treatment use a gas mixture containing mercury vapor. Mercury gas is advantageous for UV Free Microsoft Office 2019 product key 2021 applications because it emits light in the germicidal wavelength range. Other gases such as xenon also emit light in the germicidal range. The light output from mercury-based UV lamps depends on the concentration of mercury atoms, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, which is directly related to the mercury vapor pressure. In low-pressure (LP) UV lamps, mercury at low vapor pressure [near vacuum; 2 x 10"5 to 2 x 10"3 pounds per square inch (psi)] and moderate temperature [40 degrees centigrade (°C)] produces essentially monochromatic (one wavelength) UV light at 253.7 nm. In medium-pressure (MP) UV lamps, a higher vapor pressure [2 - 200 psi] and higher operating temperature (600 - Kaspersky Virus Removal Tool Crack 2022 With 20.0.8 Full Key Download °C) is used to increase the frequency of collisions between mercury atoms, which produces UV light over a broad spectrum (polychromatic) with an overall higher intensity. The characteristics of LP and MP lamps are discussed in Section 2.4.2 and summarized in Table 2.1. 2.2.2 Propagation of UV Light As UV light propagates from its source, it interacts with the materials it encounters through absorption, reflection, refraction, and scattering. In disinfection applications, these phenomena result from interactions between the emitted UV light and UV reactor components (e.g., lamp envelopes, lamp sleeves, and reactor walls) and also the water being treated. When assessing water quality, UV absorbance or UV transmittance (UVT) is the parameter that incorporates the effect of absorption and scattering. This section briefly describes both the phenomena that influence light propagation and the measurement techniques used to quantify UV light propagation. Absorption is the transformation of light to other forms of energy as it passes through a substance. UV absorbance of a substance varies with the wavelength (X) of the light, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. The components of a UV reactor and the water passing through the reactor all absorb UV light to varying degrees, Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, depending on their material composition. When UV light is absorbed, it is no longer available to disinfect microorganisms. Unlike absorption, the phenomena of refraction, reflection, and scattering change the direction of UV light, but the UV light is still available to disinfect microorganisms. Refraction (Figure 2.2) is the change in the direction of light propagation as it passes through the interface between one medium and another. In UV reactors, refraction occurs when light passes from the UV lamp into an air gap, from the air gap into the lamp sleeve, and from the lamp sleeve into the water. Refraction changes the angle that UV light strikes target pathogens, but how this ultimately affects the UV disinfection process is unknown. Reflection is the change in direction of light propagation when it is deflected by a surface (Figure 2.3), Dr. Hardware 2002 Version: 3.0.0e crack serial keygen. Reflection may be classified as specular or diffuse. Specular reflection occurs from smooth polished surfaces and follows the Law of Reflection (the angle of incidence is equal to the angle of reflection). Diffuse reflection occurs from rough surfaces and scatters light in all UV Disinfection Guidance Manual 2-3 November 2006 For the Final LT2ESWTR
------- Dr. Hardware 2002 Version: 3.0.0e crack serial keygen 2. Overview of UV Disinfection directions with little dependence on the incident angle. In UV reactors, reflection will take place at interfaces that do not transmit UV light (e.g., Dr. Hardware 2002 Version: 3.0.0e crack serial keygen, the reactor wall) and also at UV transmitting interfaces (e.g., the inside of a lamp sleeve). The type of reflection and intensity of light reflected from a surface depends on the material of the surface. Figure 2.2. Refraction of Light Water Incident Light from UVLamp Refracted Light Dr. Hardware 2002 Version: 3.0.0e crack serial keygen > > Figure 2.3. Dr. Hardware 2002 Version: 3.0.0e crack serial keygen of Light Incident Light Reflected Light Incident Light Reflected Light Specular Reflection Diffuse Reflection Scattering of light is the change in direction of light propagation caused by interaction with a particle (Figure 2.4). Particles can cause scattering in all directions, including toward the incident light source (back-scattering). Scattering of light caused by particles smaller than the wavelength of the light is called Rayleigh scattering. Rayleigh scattering depends inversely on wavelength to the fourth power (l/?i4) and thus is more prominent at shorter wavelengths. Particles larger than the wavelength of light scatter more light in the forward direction but also cause some backscattering that is relatively independent of wavelength. UV absorbance (A) quantifies the decrease in the amount of incident light as it passes through a water sample over a specified distance or pathlength. UV absorbance at 254 nm (A254) is a water quality parameter commonly used to characterize the DBF formation potential of the water (e.g., specific UV absorbance calculations). In UV disinfection applications, A254 is used to measure the amount of UV light passing through the water and reaching the target organisms. A254 is measured using a spectrophotometer with 254 nm incident light and is typically reported on a per centimeter (cm"1) basis. UV Disinfection Guidance Manual For the Final LT2ESWTR 2-4 Dr. Hardware 2002 Version: 3.0.0e crack serial keygen November 2006
------- 2. Overview of UV Disinfection Figure 2.4. Scattering of Light Back Scattered Dr. Hardware 2002 Version: 3.0.0e crack serial keygen Dr. Hardware 2002 Version: 3.0.0e crack serial keygen Light Incident Light 90° Scattered Light Target Pathogens Forward Scattered Light Standard Method 5910B (APHA et al. 1998) calls for filtering the sample through a 0.45-
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