Research indicates that wildfire smoke may distribute microbial life

That may be what causes allergic reactions in some people who are sensitive to smoke

smoke wildfires Utah and Colorado
Satellite photo at 5:37 p.m. MDT Sept. 13, 2018 showing smoke from wildfires in Utah and Colorado.

We have known for a long time that smoke from wildfires can be harmful to humans, but in recent years that knowledge base has increased significantly. And it may have reached a new level with research conducted by fire ecologist Leda Kobziar. After learning that some snow machines use bacteria as condensation nuclei, she started to wonder if bacteria was a component of smoke. Using petri dishes and drones she collected air and smoke samples at a prescribed fire.

Below is an excerpt from an article at KQED.org:

…Then they compared what was collected to the contents of ambient (non-smoky) air. They sampled for abundance and diversity by culturing colonies and analyzing DNA.

Turns out a surprising amount and diversity of bacterial cells and fungal spores gets lofted into wildfire smoke during a fire. The more severe the burn, the more cells it transports. This is a newly emerging area of research, but Kobziar thinks these microbes have the potential to affect human health.

“There are numerous allergens that we’ve found in the smoke. And so it may be that some people who are sensitive to smoke have that sensitivity, not only because of the particulate matter and the smoke, but also because there are some biological organisms in it.” … Possibly, she says, wildfire smoke has been a driving factor in the global distribution of microbial life.

“We think that the role that wildland fire is playing in transporting organisms through smoke has probably had some influence on the evolution of species as well and development of communities,” Kobziar said.

Let’s be careful out there.

How the media covers fires

What can they do to improve?

Alissa Cordner

The video below about how the media covers fires features professors from Whitman College and Oregon State University.

They talk about the myth of how after a disaster there are often reports of widespread social upheaval and discontent, which may not be accurate. And the media, they said, tends to concentrate on the singular focus of damage and short term effects.

When a wildfire occurs, obviously what  you will see or read on the news will be the immediate effects, especially on populations near the fire. You will hear about homes burned, structures threatened, roads closed, people that have been injured or killed, and evacuations. And all that is appropriate as the incident develops.

The media also has a responsibility during the event to help spread information that can save lives. Too often we hear how government systems that are supposed to warn residents about an approaching fire have not been effective, were used improperly or not at all.

There may be examples of media outlets that exaggerate or hype the emergency to get ratings, but when covering fires most respected media organizations do their best to provide accurate information as quickly as possible. (Unlike the political reporting we see.) But we should keep in mind that breaking news may not be accurate news.

There are other aspects of fires that could be covered more throughly such as fire ecology, fire dependent ecosystems, “normal” fire return intervals, fuel management, prescribed fire, and the physical and mental health risk firefighters experience. Plus, of course, the five things that are the responsibility of homeowners and state and local governments to make structures and communities more resilient — so they can live with fire.

The media sometimes reports on the costs of suppressing a fire, but that is only about nine percent of the real long term cost, according to a study by Headwaters Economics. Those additional expenses may be missed by the casual observer or consumer of news.

Additional costs can include:

  • Short and long term landscape rehabilitation
  • Lost business and tax revenues
  • Home and property loss
  • Depreciated property values
  • Property, energy, and infrastructure repairs
  • Degraded ecosystem services
  • Aid relief and evacuation

California bans insurers from dropping policies in wildfire areas

It will apply for one year after the Governor declared a state of emergency

Glen Cove Fire
Glen Cove Fire south of south of Vallejo, California, northeast of the I-80 Carquinez Bridge, October 27, 2019. Photo by @arrowstewtoe.

The California Department of Insurance is invoking a law passed in 2018 that bans insurance companies from dropping or refusing to renew homeowners policies in zip codes within or adjacent to the perimeters of recent fires. This will apply for one year after the Governor declared a state of emergency in October, 2018 and will affect at least 800,000 homes in wildfire disaster areas in Northern and Southern California. The action by Insurance Commissioner Ricardo Lara is the result of Senate Bill 824 that he authored last year while serving as state senator.

In his announcement about the localized ban, the Commissioner went a step further and called on insurance companies to voluntarily cease all non-renewals related to wildfire risk statewide until December 5, 2020.

Many homeowners in California are finding that the premiums on their policies have doubled or tripled in the last two years, and insurance companies in some cases are canceling or refusing to renew policies on residences in areas where wildfires have occurred. California’s property insurers are beginning to retreat from areas they identify as having higher wildfire risk.

Local governments are concerned that this trend could disrupt local real estate markets and cause property values to decline, reducing tax revenue available for vital services to residents such as fire protection, community fire mitigation, law enforcement, road repairs, and hospitals.

The California Department of Insurance has identified some of the zip codes affected by the temporary ban on dropping or refusing to renew homeowners policies. The following fires with the affected zip codes are listed: Saddleridge, Eagle, Kincade, Tick, Getty, Hill, and Maria.

CAL FIRE has not yet provided the fire perimeter maps for the Water, 46, Hillside, Easy, Sky, and Glen Cove Fires, therefore the zip codes near these fires is not yet available.


Opinion: Could this be a tipping point?

I have wondered for years when the insurance companies were going to drastically raise their rates or refuse to issue policies in wildfire-prone areas. I figured that when it occurred it could be a tipping point that could lead to broad positive actions affecting the resiliency of communities at risk from wildfires. Either that, or those areas could experience significant outward migration of residents, causing economic disruption.

Fire-prone communities, if they are going to survive over the long term, have to learn to live with fire. Sticking their heads in the sand and thinking fires can’t happen to them is not recognizing reality.

Earlier this year I wrote an article about “Five things that need to be done to protect fire-prone communities”. In areas where they are adopted insurance companies could recognize that homes would be less likely burn in a wildfire and adjust their rates accordingly.

Here are the broad areas that need to be considered:

  1. Home spacing and lot size
  2. Envelope of  the structure itself
  3. Home ignition zone
  4. Community infrastructure and planning
  5. Wildland-urban interface

The only effective way to ensure that residents understand and implement these five tasks is to make them mandatory by establishing Fire Codes at the local and state levels.

U.S. and Canada send firefighters to Australia

A total of 42 firefighters from North America will be assisting with the suppression of bushfires

Canadian fire management personnel Australia
21 Canadian fire management personnel received a warm welcome at the Sydney airport December 5  from @NSWRFS, @AFACnews, and @canadadownunder. These personnel from Parks, ON, MB, SK, AB & BC, are expected to return to Canada in early January. CIFFC photo.

Australia has just moved into their summer, but firefighters in New South Wales, Queensland, and Victoria have been dealing with exceptionally large numbers of massive bushfires for weeks.

Canada and the United States are each sending 21 firefighters down under to assist their Australian brothers and sisters.

The U.S. personnel will  be representing the Bureau of Land Management, National Park Service, Bureau of Indian Affairs, U.S. Fish and Wildlife Service, and U.S. Forest Service. The employees are coming from Alaska, Nevada, Montana, Colorado, Arizona, Idaho, Utah, California, Oregon, Hawaii, and Virginia.

The U.S. firefighters departed from the San Francisco International
Airport on Thursday, December 5. The Canadians arrived in Sydney December 5.

This is the first time Canadian firefighters have been deployed to Australia under the Exchange of Wildland Fire Management Resources Agreement.

The last fire assistance between the U.S and Australia was in August of 2018 when 138 Australian and New Zealand wildfire management personnel worked in the U.S. for almost 30 days to assist with wildfire suppression efforts in Northern California and the Northwest. The personnel from the Southern Hemisphere filled critical needs during the peak of the western fire season for mid-level fireline management, helicopter operations, and structure protection.

The last time the U.S sent firefighters to Australia was in 2010.

Technology may detect some power line faults before they ignite wildfires

A new system being tested seeks to provide continuous situational awareness of the condition of each circuit

Vegetation power line cause faults fires electrically
Vegetation can cause faults and fires electrically. Distribution Fault Anticipation can detect this type of vegetation fault before the dangerous situation escalates. (Texas A&M Engineering)

Technology recently developed can shut off the power to a broken overhead electrical line before it hits the ground, possibly avoiding the ignition of a disastrous wildfire. But not all of the numerous large fires started by power lines in California were caused by broken conductors. Often they originate from failing hardware, two wires blown by the wind briefly touching, or a tree limb coming in contact with a line. These situations do not always start a fire when they first occur, but over time can become more serious problems.

A team of Texas A&M researchers has developed a new technology that helps electrical providers find the cause of outages, and anticipate and predict some failures before outages occur. A few utility companies in Texas started using it a few years ago and tests in California by PG&E and Southern California Edison have just begun.

From Texas A&M:


When your power goes out, you probably assume that your utility provider has a monitoring system quickly telling them exactly where the problem is. After all, this is the era of smart technology and big data.

But the electric grid wasn’t designed or built in this era. Utility companies may know if there is an outage, but they likely don’t know exactly where or what the problem is until crews inspect it and find the problem. Utility providers are essentially blind to developing problems in the grid other than whether the power is on or off.

Not only is their ability to assess a current outage limited, they also have no way of identifying a problem that may not actually be causing an outage or anticipating where a problem may occur in the future. For example, a failing device could be sparking, creating a dangerous situation that nobody is aware of for days or weeks before it completely fails and causes an outage.

But, not anymore.

Applying concepts of pattern recognition and advanced signal processing to more than a decade of data, a team of Texas A&M University researchers has developed a new technology called Distribution Fault Anticipation (DFA).  It has the capability to not only help utility providers find the cause of outages, but to also anticipate and predict some failures before outages occur. (Their published research, Application of DFA Technology for Improved Reliability and Operations, was presented at the 2017 Institute of Electrical and Electronics Engineers Rural Electric Power Conference in Columbus, Ohio.)

“Power distribution system electrical signals include specific failure signatures, which tell a story — for instance whether potential faults and outages are about to occur,” said Dr. B. Don Russell, a power engineer and the Engineering Research Chair Professor and Distinguished Professor in the Department of Electrical and Computer Engineering at Texas A&M.

An entirely new technology
Simply put, they’ve been ‘listening’ to the electric grid for more than a decade to analyze signals and identify which ones indicate a potential problem. Conceptually, it is not much different from an auto mechanic who can hear a problem in an old engine and know exactly what is causing it. Practically, however, this is an entirely new technology.

“A practical benefit of using DFA is the ability to detect and repair arcing and misoperating devices that often cause wildfires. In a four-year study just completed at Texas A&M, it has been proven that many fires can be prevented with this technology,” Russell said.

The Texas A&M research team led by Russell includes Carl Benner, Jeff Wischkaemper and Karthick Manivannan. Their research, sponsored by the Electric Power Research Institute, developed the DFA technology. It is an autonomous, distributed computing system that provides electric utility operators a continuous situational awareness of the condition of each circuit. The result is increased reliability of their network and reduced outages. It enables the utility operator to predict adverse power line conditions and events generally not detected by conventional technologies.

“DFA recognizes the impending failure mechanisms of most distribution hardware, often allowing operators to find and fix failing devices before catastrophic failure,” said Russell. “The devices report line events to a master station server, which provides access to reports from a fleet of DFA devices on circuits across the power system.”

An obvious example of the benefits from this technology is wildfire prevention. High winds can cause electric lines to contact, causing arcing on the line and damaging it, but not causing a complete outage. The sparks from these faults have been known to start wildfires, especially during dry conditions and often without the knowledge of utility personnel. Repeated contact can burn the line down. DFA has also helped utilities detect and locate tree branches making contact with power lines and causing faults, which can start fires directly or break a line and cause it to fall to the ground.

An example of this situation was the devastating fire of 2011 in Bastrop, Texas, where a true worst-case scenario unfolded when high winds and severe drought conditions caused the most damaging wildfire in Texas history. Many wildfires in the western United States last year were also linked to electric faults.

Russell explained that awareness of adverse events and conditions, even before they cause a failure, enables utility companies to take preventive action by performing repairs or condition-based maintenance. The DFA technology is a result of more than 15 years of continuous research collaboration, resulting in the only system of its kind.

“A practical benefit of using DFA is the ability to detect and repair arcing and misoperating devices that often cause wildfires,” said Russell. “In a four-year study just completed at Texas A&M, it has been proven that many fires can be prevented with this technology. Whether preventing wildfires or dangerous power lines on the ground, DFA is the new tool that improves reliability and safety.”

Industry tested
This technology is not just lab tested, it is field proven as well.

Robert Peterson, director of control center and emergency preparedness at Pedernales Electric Cooperative, the nation’s largest distribution electric cooperative, said DFA has been invaluable in providing information that is not available any other way.

“DFA has enabled us to identify potential issues like trees on lines, failing clamps, failing arrestors, etc. and resolve those issues before they create power interruptions,” he said. “In one case, we were able to pinpoint the location of a branch on an overhead line that could have become an ignition source for wildfire in a rural subdivision. We have also used the monitors to provide information allowing us to proactively address issues with capacitor switches in order to keep our power factor within regulatory prescribed limits. Overall, the technology has proven itself to the extent that our plans now include expanding their use to the rest of our distribution system.”

Dr. Comfort Manyame, senior manager of research and technical strategy, and Robert Taylor, engineering specialist, at Mid-South Synergy were also complimentary of the technology. Taylor said, “It makes me wonder what we did before DFA,” while Manyame said they are hoping to expand their use of DFA in the coming years.

“DFA has so far been the single most important operational technology we have implemented which has given us wins in the shortest amount of time,” Manyame said. “We want to multiply our DFA benefits and improve our overall system reliability and resilience by expanding our installation, possibly to our whole system, in the next few years.”

Thomas Ellis, manager of engineering at Bluebonnet Electric Cooperative, said that their control center operators have used DFA information to accurately determine the cause and location of multiple faults, including a fault that affected just one single customer on a stretch of circuit with more than 160 miles of overhead line.

Thanks and a tip of the hat go out to MrCAPT1409. Typos or errors, report them HERE.

European organization recruiting 15 fire-related PhD candidates

PyroLife will train a new generation of experts in integrated wildfire management

PhD candidates in Europe
Two of the 15 positions available for fire-related PhD candidates in Europe. Click to enlarge.

An organization in Europe is recruiting 15 PhD candidates who have wildfire-related  masters degrees. They will be part of the PyroLife Innovative Training Network (Marie Skłodowska-Curie) involved in integrated fire management.

Ten leading institutions will host and monitor the research done by the 15 individuals who are early-stage researchers. The interdisciplinary and intersectoral consortium spans across Northwest and Southern Europe and beyond, encompassing the key disciplines and actors in fire; from academia and research institutes to small and large businesses, advocacy, governance, and emergency management.

One of the announcements for the 15 positions has already closed, and the others will very soon. Here is a link to the individual announcements.

The project is funded by the European Union’s Horizon 2020 research and innovation programme, Innovative Training Networks.

The applicants will be based in various locations in Europe. Some of them will at times be in one or more of the following countries: Spain, Canada, France, Netherlands, Greece, United States, Poland, UK, Denmark, New Zealand, or Germany.

The positions may have unusual requirements concerning the location of the applicant. Here is an example:

PyroLife as a Marie Curie Action is a researcher mobility programme. You are therefore required to undertake transnational mobility in order to be eligible for recruitment. As such, you must not have resided or carried out your main activity (e.g. work, studies) in the country where you have been recruited for more than 12 months in the 3 years immediately before the recruitment date.

Below is more information from the organization’s website:


Do you have a genuine interest in landscape fires and resilience? Are you up for an interdisciplinary challenge, looking and learning beyond your own field and assumptions? With an international team that is inclusive, collaborative, creative and open minded? Then we are looking for you!

The 2018 wildfire season was a glimpse of what to expect in the future: deadly mega-fires in Mediterranean regions and high fire activity in temperate and boreal areas outside the typical Spring fire season. We cannot solve this challenge with the old mono-disciplinary approach of fire suppression: there is a critical need to change fire management from fire resistance to landscape resilience: Living with Fire. This requires a new type of diverse experts, who not only understand fire, but who are also able to communicate risks, deal with uncertainty, and link scientific disciplines as well as science and practice.

The new Innovative Training Network PyroLife will train the new generation of interdisciplinary experts in integrated fire management, acknowledging that 1) knowledge transfer from southern Europe (and worldwide) to temperate Europe can support the new generation of experts; and 2) fire risk planning, communication and management can learn from cross-risk lessons including temperate European expertise in water management. In doing so, this project combines how the North solves community problems with the fire knowledge of the European South.

We are hiring 15 PhD candidates across Southern and Northwest Europe and across a range of scientific disciplines, from social sciences and policy to environmental sciences and engineering. We are looking for a diverse group of creative and open minded Early Stage Researchers who are able to link innovative science to society, and communicate with media, stakeholders, and policy makers.

These 15 positions are open at 6 universities, 2 research institutes, a foundation and a company across Southern and Northwest Europe. For an overview of all positions, please visit https://pyrolife.lessonsonfire.eu/

This PhD project will help formulate an effective temperate European Fire Danger rating system that is urgently needed to support the management of increased wildfire occurrence expected under changing climatic conditions.  The project will take a hydrological approach, predicting the moisture content of fuels (living and dead vegetation) at a range of spatial scales; from targeted high risk localised plots to temperate European regions. Fuel moisture predictions will be devised from the development of a low-cost wireless fuel moisture sensor network combined with remotely sensed water and vegetation data. Working with secondment partners, the impact of the refined temperate fuel moisture contents on fire behaviour and fire danger will be assessed at exemplar sites. The PhD project will be based at the University of Birmingham, UK, with secondments to both the University of Alberta, Canada, and to industry partners Tecnosylva, Spain.