The Need to Address Both Climate Change and Poverty

,

Climate change and poverty are intimately connected. This connection deserves a closer look, given deepening social and economic inequalities worldwide. The call to integrate climate adaptation measures with poverty reduction measures are ongoing.

In 2021, countries facing the greatest ecological threat were the same as those facing the greatest need for economic support. A longstanding recommendation of the OECD is to increase the adaptive capacity of nations to combat climate change and to address poverty.

A report by The Green Resilience Project highlights four recommendations for Canadian government and climate policymakers to enhance economic vitality of communities while addressing climate change. These recommendations are to:

  1. Incorporate basic income into Canada’s plan for a just transition.
  2. Design income security and climate policy solutions to focus on improving individual and collective quality of life.
  3. Empower people and communities with the tools and resources they need to build or strengthen resilience
  4. Ensure that corporations and the wealthy pay their fair share.

It is time to rethink the term “resilience,” if not to do away with the word altogether, so that governments, corporations, and society can more realistically address the emergent and long-term needs of nations and communities to address poverty and climate change effects simultaneously. Investment into sustainable projects that address the dual problems of climate change and poverty can counter the overemphasis on how nations and communities fight environmental and economic adversity despite all the odds.

 

By Leela Viswanathan

 

(Image credit: Aaron Burden, Unsplash)

/by

How Indigenous Knowledge Helps Manage Climate Change Effects On Human-Water Ecosystems

,

Outcomes of climate change on water include rising sea levels, warmer sea surface temperatures, and shifts in precipitation types, timing, and amounts. These outcomes have an impact on Indigenous Peoples’ relationship with water. Indigenous communities continue to draw from Traditional Ecological Knowledge (TEK) to maintain the overall vitality of human-water ecosystems in the context of climate change.

Sea surface temperatures have been increasing steadily throughout the 20th century and this trend continues. Changes in ocean temperature affect the ongoing presence of plants, fish life, and other animals. Increases in water temperature have also significantly altered the migration and breeding patterns of sea life, including shellfish. Another key impact is the presence and the frequency of the recurrence of “red tide,” a harmful algal bloom (HAB). Harmful algal blooms are toxic microscopic organisms (also known as cyanobacteria) that feed off the energy of light to grow; they are fatal to marine life, and can make humans sick.

The Southeast Alaska Tribal Ocean Research (SEATOR) network has been monitoring, sampling, and reporting on the levels of toxins among shellfish around the Alaskan Panhandle. SEATOR benefits from Indigenous Traditional Ecological Knowledge to help to predict harmful algal blooms (HAB), reduce poisoning, and harvest shellfish more effectively. Traditional harvesting practices of the Indigenous Peoples of Alaska help to keep Indigenous communities safe from the effects of HAB.

In another example of applying Indigenous Knowledge to manage human-water ecosystems, the Heiltsuk Nation (Bella Bella, British Columbia), on the West Coast of Canada, are applying traditional harvest practices, to facilitate the natural regeneration and resilience of kelp, at a small scale. With the assistance of researchers from the School of Resource and Environmental Management at Simon Fraser University, the Heiltsuk Nation are showing how their stewardship practices can help manage the growth of perennial kelp to make the kelp resilient to changes in the climate. University researchers were “motivated by the information needs” of the Heiltsuk Nation and together they co-designed a study to “measure the ecological resilience of feather boa kelp…and determine what environmental variables most affected its recovery.” The combination of Traditional Ecological Knowledge and Western scientific practices permitted the researchers to explore how the social relationship of the Heiltsuk Peoples to the ecological resilience of their environment are affected by increases in ocean temperatures.

Colonization compounds the effect of climate change (and vice-versa) on human-water ecosystem relationships. In Madagascar, for example, while rising sea levels have displaced Indigenous communities, conventionally, being nomadic, by choice, was also a way for Indigenous Peoples to deal with the unpredictability of the climate. However, a shift to sedentary lifestyles, further entrenched by modernization and colonization, have also affected human-water ecosystem relationships in Madagascar.

Drawing from a wide variety of Indigenous bodies of knowledge rooted in both Indigenous experiences and practices, shed light on different ways to manage climate change effects and to better understand the fine balance of human-water ecosystems in a changing climate.

 

By Leela Viswanathan

 

(Image Credit: Frank McKenna, Unsplash)

/by

Addressing the challenges of solid waste management in Indigenous communities

,

Solid waste management is a climate change issue. The decay and combustion of solid waste contribute to greenhouse gas emissions in the form of methane and nitrous oxide. Indigenous communities that do not have adequate solid waste management systems face challenges to their health, safety, land and water. Additional funding and community education can benefit Indigenous communities to meet the environmental challenges of solid waste management more effectively.

Solid waste is often referred to as garbage. Solid waste management involves “collecting, treating, and disposing of solid material,” which is thrown away because it is deemed to be no longer useful. If waste is not managed properly, it can result in environmental pollution, vector-borne diseases spread by rats and insects, and outcomes associated with poor sanitation. Improper waste disposal techniques in managing landfill wastes can result in the leaching of contaminants (i.e., leachates) into well water, ground water, and surrounding surface waters (e.g., lakes, rivers, and streams).

Two First Nation communities facing challenges to solid waste management are those of the Garden Hill First Nation and Wasagamack First Nation in Northern Manitoba. In 2018, a research study outlined how both Garden Hill and Wasagamack communities resorted to open dumping and burning toxic waste, including styrofoam and electronic waste (i.e., e-waste) in backyards disposal pits, because of poor infrastructure for safe and effective solid waste disposal and management. The study asked Indigenous community members to identify key issues in solid waste management that required attention; these included:

  • Lack of waste management for toxic wastes including plastic and e-waste.
  • Lack of funds dedicated for waste management.
  • Lack of curbside waste collection, leading to the proliferation of multiple community garbage dumps, including in backyards, and close to homes.
  • Lack of enforcement of environmental regulations by federal governments on dumping by off-reserve contractors.
  • How “reserves provide a black hole for toxic waste, stewarded products, and recyclables.”

The Assembly of First Nations (AFN) has called for funding for First Nation communities to increase the capacity of landfill and transfer stations, to store or accommodate wastes, and to innovate sustainable solutions to solid waste management. Projects like a proposed engineered wetland in Wasagamack First Nation hold the potential to reduce the adverse effects of leaching and its residual effects. The human-made wetland would use phytoremediation—a mitigation practice of introducing native plants in former disposal pits to reduce the concentration of leachates contaminating the environment. Educational projects like the Seventh Generation Waste Warriors are also promising, to inform Indigenous youth about how to develop waste diversion projects in their own communities. The lack of funding to both rural and urban Indigenous communities for solid waste management is corroborated in a 2021 report by Indigenous Services Canada that evaluated the First Nations Solid Waste Management Initiative (FNSWMI), a program that funds Indigenous solid waste management initiatives.

Indigenous communities need adequate and sustained funding to design, operate, and maintain solid waste management systems. Community education programs that foster collaborative approaches also deserve focused attention.

 

By Leela Viswanathan

 

(Image credit: Sara Cottle, Unsplash)

/by

Natural Hazards and Indigenous Health in a Changing Climate

,

Natural hazards are one of the top seven climate change risks to Indigenous peoples’ health, as reported by Health Canada. According to the U.S. Federal Emergency Management Agency (FEMA), a natural hazard is not a human-made hazard; it is “an environmental phenomena that [has] the potential to impact societies and the human environment.” The Canadian Disaster Database offers an inventory of disasters affecting Canadians since 1900.

Natural hazards include:

  • Avalanches
  • Earthquakes
  • Floods
  • Hurricanes
  • Landslides
  • Severe storms
  • Storm surges
  • Tornadoes
  • Tsunamis
  • Wildfires

Natural hazards in the form of extreme weather and climate emergencies, like fires and floods, can cause land degradation, including permafrost degradation, and the destruction of spaces of cultural and environmental significance. These effects can increase the risk of human injury and fatalities as well as the loss of Indigenous traditional knowledge and skills about working with the land.

Indigenous peoples may become displaced from their traditional territories, as a result of natural hazards in a changing climate. Consequently, the emotional health of Indigenous peoples must also be considered in relation to climate-induced displacement. Much of the research in this area has focused on the lives of Inuit living in the Arctic, and more research is needed that involves other Indigenous communities.

Chapter 2 of the Health of Canadians in a Changing Climate: Advancing Our Knowledge for Action describes hazard mapping in Kashechewan First Nation and Peavin Métis Settlement’s FireSmart Program as ways of managing natural hazards and enhancing Indigenous health.

 

By Leela Viswanathan

 

(Image Credit: Raychel Sanner, Unsplash)

/by

Diverse Gardens Offer Examples of Local Small-Scale Climate Adaptation

,

Individual gardens, grown in backyards, balconies, and containers; community gardens developed in public spaces; and Indigenous demonstration gardens developed collaboratively, all play a role in helping local small-scale climate adaptation. Gardeners can show how to practice agency in managing climate change, while Indigenous demonstration gardens can offer public education about, and promote traditional uses of, Indigenous plants.

Gardeners face many challenges of climate change effects such as fluctuating temperatures, erratic weather extremes, water shortages, droughts, and flooding from rainstorms. These challenges are on top of common hindrances of gardeners, including, weeds, insects and animal pests, and necessary watering restrictions imposed by governments. When gardeners recognize that they have agency as “both stewards and guardians of our environment,” then there are actions that they can take locally to adapt their gardening practices to climate change. These practices are noted by the National Wildlife Federation, and include:

  1. Using human-powered yard tools vs gasoline-powered tools to reduce energy consumption and minimize pollution.
  2. Growing diverse native species of plants to manage the impact of so-called “invasive species.”
  3. Learning about the connection among birds, bees, and other pollinators in order to appreciate how plants grow, and how gardens depend on symbiotic relationships with diverse insects.
  4. Reducing water consumption and protecting topsoil by using rain barrels and by practicing mulching.
  5. Composting both yard waste and kitchen waste. While this can be done with the support of municipal services, it is also important to consider how compost can be a source of soil nutrients and as work as a natural fertilizer for diverse community gardens.

Indigenous demonstration gardens, even in high-traffic urban areas, can highlight how to manage plants in the midst of climate change, while also promote traditional uses of Indigenous plants. For example, the Bickford Teaching Garden is a biodiverse garden with five plots: pollinator plants, Indigenous sacred medicinal plants, herbs, sun-friendly plants, and a plot for seed saving. The garden, one of several Indigenous gardens in downtown Tkaronto (Toronto, Ontario), was designed and installed by Miinikaan and is maintained by volunteers. The garden beds were developed using the sheet mulching method which regenerates soil without cutting into the ground.

Another Indigenous demonstration garden is the Na’tsa’maht Indigenous Plant Garden – a “living classroom” located on the traditional territories of the Lkwungen and Wsáneć peoples, on the lands of the Landsdowne Campus at Camosun College in Victoria, BC. In addition to supplying space for Indigenous-led education, it also offers opportunities for the study and practice of sustainability at the college. Na’tsa’maht is a Salish word that means “unity or working together as one” or “being of one mind, one spirit.”

All these examples of gardens offer local, human-scale examples of climate adaptation. Whether gardening in a community garden, backyard, or apartment balcony, or volunteering in an Indigenous demonstration garden, gardening can offer opportunities to take individual and collective action in the context of climate change.

 

By Leela Viswanathan

 

(Image Credit: Steffi Pereira, Unsplash)

/by

Indigenous Perspectives to Understanding Invasive Species

,

Invasive species are organisms that are not native to a particular ecosystem, and are typically viewed as harmful to their environment. According to scientists, preventing the spread of invasive species also protects the environment from the effects of climate change.  However, current Indigenous research encourages reassessing how invasive plant and insect species are understood. Indigenous perspectives seek to consider why invasive species are present in the first place, so that people can benefit from the these species, rather than focusing solely on their removal.

An Anishinaabe perspective proposes that every plant is kin. Consequently, plant invaders are viewed in terms of the kind of relationship they might create with humans. One might consider what led the so-called invasive plant to appear as a foreigner to the territory in the first place, rather than automatically sanctioning its removal. This kinship approach, notes Dr. Nicholas Reo (Sault Ste. Marie Tribe of Chippewa Indians), in an interview with the CBC Radio’s Unreserved, is a “more participatory, relational approach” to science. For example, Dr. Reo’s collaborative research has opened up the possibility for invasive cattail to be considered as an alternative fuel source, or as food, rather than as a nuisance and an undesirable species to wetland ecosystems around the Great Lakes.

Indigenous perspectives to understanding invasive species, such as through a kinship approach, can be viewed in concert with, or as an alternative to, the federal and provincial legislation and regulatory policies on invasive species in Canada.

 

By Leela Viswanathan

 

(Image Credit: Vyacheslav Makodin, Unsplash)

/by

Climate Change Impacts on Monarch Butterfly Migration and Survival

,

Climate change threatens the survival and migration practices of monarch butterflies. Drastic shifts in weather patterns and the fragmentation and degradation of habitat adversely affect environmental cues facilitating migration and hibernation of monarch butterflies. Restoring the monarch butterflies’ habitats, destroyed by climate change and deforestation practices, would increase the butterflies’ chances of survival.

Monarch butterflies are among the endangered species assessed by the Committee on the Status of Endangered Wildlife in Canada (COSEWIC). Once numbered at over one billion in the 1990s, monarch butterflies declined to approximately two hundred million individuals in 2015-2016.

Milkweed is the food supply for monarch butterflies. Monarch butterflies need milkweed to grow and develop. Caterpillars only feed on milkweed. As milkweed adapts to climate change, they can also threaten to poison the butterflies. When milkweed plants sense warming temperatures, they increase their production of cardenolide, a poison, as a defensive mechanism against predators.

Monarch butterflies can freeze to death in temperatures below freezing. As the weather gets colder in parts of Canada and the United States, monarch butterflies fly thousands of miles south to Mexico, starting in October, to winter among the Oyamel Fir Tree forests. Typically, monarch butterflies make their return trip North in early April; however, habitat loss threatens monarch survival.

Practices of rewilding rural and city landscapes, including growing more milkweed, support monarch butterflies’ survival, and the nectar-rich milkweed give the butterflies added energy before their long flight South each year.

 

By Leela Viswanathan

 

(Image Credit: M. Dean, Unsplash)

/by

Preventing Climate Maladaptation

,

Climate maladaptation is defined as the unintended negative results of adaptation policies and decisions. Maladaptation cuts across social and geographic boundaries as well as time.

In 2013, researchers Jon Barnett and Saffron J. O’Neill developed a framework for maladaptation, and categorized the phenomenon into five types:

  • Increasing emissions of greenhouse gases.
  • Disproportionately burdening the most vulnerable.
  • High opportunity costs.
  • Reduce incentives to adapt.
  • Path dependency.

Actions that burden the most vulnerable carry the highest climate risk. Furthermore, institutions and organizations that are path-dependent to address climate change slow down climate adaptation and associated decision making processes.

According to the 2022 IPCC WGII Sixth Assessment Report: “adaptation planning and implementation that do not consider adverse outcomes for different groups can lead to maladaptation, increasing exposures to risks, marginalising people from certain socio-economic or livelihood groups, and exacerbating inequity.”

Preventative measures against maladaptation must be undertaken. Exchanging mutual learning and knowledge gained from assessments about what works and what does not in environmental monitoring and decision-making may help to prevent maladaptation. Furthermore, “blueprint approaches” to climate adaptation that lack an understanding of the details regarding the vulnerability and social inequities of a context, and that minimize engagement, should be avoided.

Poor climate leadership is a primary culprit of maladaptation, and governance practices in climate adaptation need more scrutiny. Climate equity and justice must be prioritized while “inclusive planning initiatives informed by cultural values, Indigenous knowledge, and scientific knowledge” can further prevent climate maladaptation.

 

By Leela Viswanathan

 

(Image Credit: Jezael Melgoza, Unsplash)

/by

Evidence of Changing Seasons in the Context of Climate Change

, ,

Climate change reflects a “shifting rhythm of nature.” Government-sponsored high-resolution maps, scientific studies about the impacts of global warming, and witness accounts by Indigenous elders offer evidence of changing seasons due to climate change.

A key sign of how seasons are shifting is the increase in global temperatures. According to the National Oceanic and Atmospheric Administration (NOAA), Earth’s “combined land and ocean temperature has increased” at an average rate of 0.18 degrees Celsius per decade since 1981. The 2018 IPCC Special Report on Global Warming produced the target of 1.5 degrees Celsius, to limit global warming. In 2021, global warming was a key topic for discussion at the COP26 conference where global efforts to reduce greenhouse gas emissions were highlighted.

More evidence of changing seasons is noted by shifts in plant hardiness zones. A plant hardiness zone is a specified geographic area with a certain range of annual minimum temperatures which are vital for plants to survive. Maps of plant hardiness zones in Canada and the United States are showing that the zones are creeping northward over time. This shift can have an impact on the length of the growing season, rapid adjustments to agricultural practices and to farmers’ crops, and access to food year-round. In turn, urban agriculture projects and residential gardens are also affected.

Even a slight increase in temperature has an impact on the start of each season. For example, spring thaw happens earlier and pushes the onset of the first frost. Ultimately “winters are shorter, spring is earlier, summers are longer, and fall arrives earlier.” The phenomenon of “false spring” is also witnessed in North America, more frequently in recent years than in previous decades. False spring happens when temperatures rise suddenly and cause plants and trees to bud and bloom too early, making them vulnerable to the still-present risk of frost. A report by the US-based National Atmospheric and Space Administration (NASA), from almost 20 years ago, had signaled that “regional thawing trends” in North America were “advancing almost one day a year since 1988,” and “[had] the potential to alter the cycle of atmospheric carbon dioxide intake and release by vegetation and soils across the region, potentially resulting in changes in Earth’s climate” and reflects current phenomena.

Changing seasons in Northern communities reveal how earlier spring thaws trigger permafrost thaw and sea ice retreat and ultimately, coastal erosion. When permafrost thaws, the ground becomes permeable and the ensuing degradation has destructive impacts on infrastructure, such as on roads and buildings, and on sustainable development efforts too. Furthermore, while engineering solutions to these problems exist, they are also costly.

Coproducing knowledge with Indigenous communities can offer crucial insights, not always shown in high-resolution maps of coastal erosion, of permafrost degradation, and of the progression of spring thaws over time. Documenting the experiences of Indigenous elders who witness climate change will also help to paint a clearer picture of the impact of changing seasons on plants and wildlife.

 

By Leela Viswanathan

 

(Image credit – Freestocks, Unsplash)

/by

The Changing Regime of Wildfires

, ,

According to the 2022 UNEP’s Frontiers Report, the regime of wildfires affecting Earth’s ecosystems is changing.  The changes are due to increases in greenhouse gas emissions (GHG) in the atmosphere, changes in land use, and other human activities.

Wildfires are uncontrolled fires that burn in vegetation. While some fires are naturally occurring, other fires are started by humans as a land management practice, to clear land for human settlements, deforestation, resource extraction, and agricultural use, all of which interfere with the natural occurrence of fires. Fire regimes involve three factors: the severity and intensity of a fire, the frequency of a fire, and the time of year or season of the fire.

Extreme weather events are also contributing to shifts in fire regimes, and global warming influences longer fire seasons. For example, monitoring conducted by Natural Resources Canada indicates that with drier conditions expected in the years ahead, there will be a “1.5-fold increase in the number of large fires by the end of the 21st century.”

While providing valuable information on the ecology of wildfires, the 2022 UNEP Frontier’s Report highlights the importance of developing a “system and whole-of-landscape approach” to fire and land management that draws from Indigenous cultural and ecological knowledge to manage wildfires. Indigenous Fire Stewardship (IFS) and Indigenous fire management practices in the fire-prone savannahs of North Australia, Brazil, and Botswana are a few approaches that have been proven to be effective in managing the changing regime of wildfires.

 

By Leela Viswanathan

 

(Photo Credit: Joanne Francis, Unsplash)

/by