??Design and Implementation of a Field Study of Durable Products and Recyclables Discards
in
Marjorie J. Clarke, Ph.D.
Instructor,
Abstract
At the same time, durable products (e.g., electronics, appliances, furniture), some of which are usable with little repair) are left at curbside as trash. Though some of these durables are scavenged before collection, many are not.
To address the need for
information on the disposal of recyclables and durables as trash, a three-week
field survey of garbage left at curbside in
1. the extent to which recyclable glass was left in garbage bags and cans
2. numbers, types and general condition of durable products left at curbside for collection as garbage.
This paper will present data collected during this study, and using GIS, conclusions will be drawn regarding variation based on location and demographics of neighborhood.
Introduction
Municipal recycling and
waste prevention programs have been maturing across the country for the last
decade. Recycling programs have expanded
in some areas to include more than just the basic newspapers, cans and bottles. There are unique characteristics of
Even though there are
unique challenges involved with implementing recycling in
Diversion rates have risen
from just a few percent to 27% nationally [1]
during the 1990s, but in
There has been an even
larger impetus reducing the City's ability to recycle. Recycling in
Another development that
put recycling on the back burner in terms of solid waste policy focus was the
decision by the current Administration in 1996 to close the Fresh Kills
Landfill, which had received 85% of the residential and institutional waste
stream at that time. The post-decision
planning for alternative means of waste management, has focused the effort and
funding almost exclusively on exporting all solid waste that is not collected
for recycling, not on how prevention, recycling, and composting might be
maximized.
Perhaps one of the most
important factors limiting the ability of the City to achieve higher recycling
rates, particularly in the large multi-family residential sector, was an
agreement forged between the Administration and the real estate interests in
the City at the start of the recycling program.
This agreement, in effect, abrogated the enforcement provisions of Local
Law 19 such that apartment building owners would not be held accountable for
the lack of recycling by tenants. Since
then the recycling enforcement in apartment buildings only involved questions
of signage, or lack of recycling at all.
But the main enforcement problem in apartment buildings is now the
disposal of targeted recyclables in black garbage bags that enforcement
personnel refuse to examine. Assuming
that 50-60% of the waste stream consists of recyclables, and only 20% of the
waste stream is recycled, it is clear that 30-40% of the waste stream,
recyclables, are wrongly disposed in the trash.
Waste prevention has
likewise had a difficult time in receiving recognition as the highest waste
priority. Although the New York State Solid Waste Management Act of 1988's goal
for waste prevention was 8 to 10%, the State backed away from the waste
prevention goal as well as the recycling goal.
Waste prevention receives roughly $1 to 2 million annually in the City's
budget for a few small programs aimed mainly at commercial waste
prevention. By comparison $300 million
is spent for collections, $150 million for export (and increasing at a rapid
rate annually as the Fresh Kills closure date at the end of 2001 nears), and $50
million for recycling in round figures.
The
Project Design
The brief descriptions of New
York City's recycling and waste prevention programs point out at least two
areas of research questions: 1) where
are recyclables most often deposited in the trash, and why, and 2) where and
which types of durable products are left at curbside for disposal. In order to start answering these questions,
a research project was designed to gather data on the streets of
Day
Date
Time
Address (the
Whether the area was
residential, commercial or mixed (for
The number of garbage bags and garbage cans left at curbside
Number, description, and condition of durables
Number of bags/cans with recyclable glass.
The students were instructed to collect the data early in the morning on garbage collection (not recycling) routes. Accuracy and legibility of data was stressed.
Data Collection
Prior to data collection, the students were given a brief lecture and two
pages of instructions (Fig. 2) along with copies of the Matrix, and given a
rationale for the project as well as background on recycling and waste
prevention in New York City, as well as instructions on when and how to gather
the record the data. Since the data
gathering took place over a few weeks in each case, there was ample opportunity
to answer questions from the students about the data collection procedures. Over
1500
Although the original intention was for the first phase of the project to
be conducted solely in
Fig. 1 Matrix for Data Collection: New York City Recycling Enforcement /
Durables Disposal Project
Name:
Extra Credit Project for Geology
101, Spring 1999 |
(print all information legibly and carefully!) |
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Location # |
Day |
Date |
Time |
Address with cross street |
R=Residential C=Commercial M=Mixed |
# Bags |
# Cans |
#, description, and condition of durables |
# bags/cans with glass |
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Fig. 2 Extra Credit Project for Geology 101, Spring 1999 -- instructions for data gatherers
NYC
has been collecting resources such as newspapers, magazines, bottles, and cans
for recycling since 1988. Recycling
conserves natural resources such as metals, some of which are becoming in short
supply, plastic, which is manufactured from oil, glass, which comes from sand,
and paper products, which come from trees.
Mining not only depletes natural resources, but also generates
environmental impacts such as air and water pollution.
Clear-cutting our forests produce a large number of impacts on the local
biosphere, and on increasing erosion of topsoil and sedimentation of streams.
Creating paper, plastic, and most products involves environmental impacts
of air and water pollution.
The
City Council passed a mandatory recycling law, requiring that NYC reach a
recycling rate of 25% by 1994, but the Mayor has never put in sufficient funding
either for recycling education or enforcement, so we only recycle about 19%.
Other cities recycle as much as 50%.
The more we recycle the less we have to extract minerals and fossil
fuels, and log forests, so we want to maximize our recycling rate.
We
also want to reduce the amount of materials that we use.
This is called waste prevention.
How can we reduce the amount of materials used?
Yesterday I saw a GNC store cashier put not one, not two, but three
shopping bags around someone’s order (it wasn’t that heavy!).
Meanwhile, I was carrying reusable cloth bags for my purchases.
My
local grocery store estimates they give out 20,000 plastic shopping bags per
week! Multiply that by hundreds of
stores in NYC. And that’s just the
needless bags we use, throw away, and waste.
They don’t decompose in the landfill and are hard to recycle.
Packaging wastes are almost 1/3 of the wastes that we create, there are
many opportunities to reduce packaging waste.
How
else can we reduce waste? We can
repair or refurbish durable products rather than throwing them out.
What are durable products?
Commerce Dept. definition: Product
DESIGNED to last more than 3 years.
Sometimes there is absolutely NOTHING wrong with the item; the owner just
doesn’t want it anymore. Sometimes,
it needs a small repair, but the owner doesn’t want to bother.
Here’s where our
project comes in.
There is no information about how many and what kinds of durable products are being thrown out and destroyed in the back of Sanitation packer trucks.
_________________________________________________________________________________________________________
Lessons were learned from the Hunter data collection experience, and were implemented in the New Jersey phase. The expansion of data collection area from Manhattan to include the other boroughs proved to be somewhat problematic, since the matrix did not request borough information for each location. Some of the New York data had to be discarded as certain addresses are repeated in more than one borough. This problem was rectified for the New Jersey phase, as specific information was requested regarding each location's town plus either zip code (for non-New Brunswick locations) or Sanitation Ward number (for New Brunswick data).
Another improvement was made regarding the collection of information on the type of location from which each set of data was collected. In the New York phase information on the general building characteristics of the immediate area were requested (i.e., residential, commercial, and mixed). For the New Jersey phase, more specific information on each location was requested (i.e., the size of each building that generated the waste if in the residential sector, and a commercial designation if the data location was commercial).
Even more information is being sought regarding the population residing at each address, so that comparisons of data at different addresses can be more meaningful. Since not every location is the same as the next (i.e., a large apartment building may be right next to a small brownstone rowhouse), the records of the number of garbage bags and cans at each location might prove helpful in assessing the relative magnitude of the durables pile.
The entry of the recyclables discards data onto the data collection sheets shows that students appeared to have interpreted the directions in more than one way. Garbage is discarded both in black bags and in garbage cans, and so there were two columns for total garbage bags and garbage cans seen at each location. It was intended that the last column would show both the number of garbage bags and garbage cans that contained recyclable glass separated by a slash (e.g., Bags / Cans), but some students wrote only one figure in this column. For the New Jersey phase, a slash mark was pre-entered into each square of the data collection matrix to ensure that two figures would be entered.
Statistical
and Analytical Design
The simplest presentation of the data will involve maps depicting locations of data collection vs. locations of durables discard, and of misallocation of recyclables in the garbage. Other maps will show disaggregated categories of durables (e.g., appliances, electronics, furniture).
The categories of data chosen for collection (the column headings in the matrix) lend themselves to Geographic Information Systems (GIS) analysis. GIS studies can pinpoint hotspots of activity or inactivity, in this case poor or good recycling behavior, and hot spots of generation of durable products that are not discarded in more environmentally friendly ways (e.g., resold, donated, lent out, refurbished, etc.).
Other GIS analyses are planned, for example:
Durables Discards
Income vs. durables discards
Race vs. durables discards
Age vs. durables discards
Building type vs. durables discards
Educational level vs. durables discards
Cross-tabulations, e.g., high income and high educational level vs. furniture discards
The same list of GIS analyses is planned to see if there is any unusual spatial distribution of inappropriate recyclables discards as well.
Current
Project Status
The New Jersey data are currently in the process of being transcribed
from the paper originals to Excel spreadsheets in preparation for
analysis. At the same time, local
databases for demographic data are being secured for purposes of GIS analysis.
Conclusions
While it is premature to speculate about the prevalence or spatial distribution of instances where durables or recyclable materials are discarded in the trash, some lessons were learned in the instruction of the data collection volunteers and in the design of the data collection matrix. It is also very important to be as specific as possible to characterize the building generating the discards. Smaller buildings would be expected to generate smaller quantities of discards of all kinds, and it is incorrect to give the same weight to the data from all locations.
References
[1] "Characterization of Municipal Solid Waste in
the United States: 1996 Update",
USEPA Municipal and Solid Waste Division, EPA/530-R-97-015, June 1997.
[2] "Characterization of Municipal Solid Waste in
the United States: 1996 Update",
USEPA Municipal and Solid Waste Division, EPA/530-R-97-015, June 1997.
Keywords
Municipal
Solid Waste, Waste Prevention, New York City, Recycling Efficiency, Durable
Products Discards.