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Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.

Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.

Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.
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Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.

Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.

Originally built in 1972, these eight interlocked residential units and the accompanying House Master’s Residence won an AIA award for their unique spatial complexity, balancing standard units of construction with volumetric interplay, all while bringing natural light into living spaces. However, nearly 40 years later
These 1970’s era, interlocked faculty housing units won an AIA award when first completed. They were unique in spatial complexity, By early 2,000’s they were showing signs of age, and had become outdated on many levels. Working with project management for the Faculty of Arts & Sciences, we prepared one prototype design to bring the buildings into the 21st century. New insulated skylights, standing seam metal siding, cedar decks and trellises, exchanging black roofs for well insulated white roofs, were all part of a larger planning program to renovate all nine units. The prototype was implemented in 2012, to great approval and result. In 2013 a few more units were done. In 2014 the “House Masters” unit was done, with the remaining four units planned for future budgets.
Sustainable features include re-use of most materials on site, (former siding was able to become sheathing below metal panels), implementing the Stretch Energy Code for insulation, and putting new white roof membranes in place. Using FSC certified wood for decks and trellises, and using Rheinzink siding, a “200 year material” according to the manufacturer.
After nearly 40 years, Ronald Gourley’s AIA award winning Faculty Housing (1972) was beginning to show its age – plywood siding was delaminating, wooden decks splintering, and custom windows failing. Therefore, the opportunity to reinvent a piece of Mid-Century Modernism presented itself when two of the building’s eight alternating rooftop designs were to be rebuilt as prototypes for the remainder of the structure.
The strength of the original design was its rectilinear and symmetrical arrangement of internal and external spaces, but the difference between the two had become blurred over the decades. New zinc siding, mahogany decking, and stainless steel railings accentuate the defining elements and more clearly articulate the living spaces, breathing new life into the building and reinvigorating the surrounding campus.
Furthermore, the renovation also provided a chance to bring the structure up to modern energy standards and help meet Harvard’s lofty environmental goals. Insulation within the ceilings was more than tripled, white TPO roofing reduces the heat island effect, construction waste was minimized by recasting the siding as sheathing, and materials were selected not only for aesthetics, but for their longevity and ability to be recycled as well.
Harvard’s energy standards brought an uncharacteristic level of environmental care to this building. Roof structures are triple insulated, allowing separating interior from exterior in the most thermally efficient manner. North facing triple insulated skylights and white TPO roofing reduces the heat gain, but allows natural light to pour in. Materials were selected not only for aesthetics, but for their longevity. Zinc, for example, is made of 100% recycled material, and has duration of 200 years. Uncharacteristic levels of environmental care were common on this project.

Plantique, INC http://www.plantique.com
Entry Name: Classic Fireside Getaway
2014 PLNA Awards for Landscape Excellence Winner
Category: Hardscaping-Residential $30,000-$60,000
Award Level: Bronze
Photo Description:
The initial call from these homeowners was about a drainage issue. After having installed new roofing, siding, and a new porch enclosure, it was discovered that the original piping for the downspouts had failed. A few recent rainstorms had left a large pool of water behind the house. The new gutters and downspouts were now properly channeling water into a sub-surface piping system that no longer functioned. Obviously this had to be fixed, but after some further discussions, it was suggested that if a cost-effective solution could be found, perhaps a patio could be created along with the drainage solution. This would make the space between the porch and the pool more useful. The surfaces would have to be as kid-friendly as possible, as the homeowners foresaw frequent visits by their grandchildren. The flow of the spaces would have to be such that small bikes would be able to easily maneuver around chairs and tables.
After a site study was conducted, several issues were discovered. Pertaining to the drainage issue, it was determined that the grade sloped directly toward the porch from the pool. This not only channeled water toward the house and porch, but created a dam in an already shallow drainage swale that trapped water off to the side of the porch. Since the soil in this area is predominantly clay, water could sit in that area for days until it drained away. On the aesthetic side, a good part of the house’s façade was brick, the porch floor was brick, the small patio and walkways were brick, and the seating wall next to the pool was brick; there was a lot of brick. The challenge would be to find a cost-effective material that would contrast will with the brick, while creating a functional patio space that also facilitated water drainage.
The solution involved a significant re-grading of the area between the pool and the house, along with the installation of a completely new drain system to channel roof water away from the area. Working with the fixed points of the porch and foundation levels of the home, the slope that pitched toward the house was cut into to create a positive pitch away from the house. This created 20 in. high cut at the furthest point from the porch. To retain this, a segmental retaining wall block was used to form a curved seating wall around a mortared brick fire ring, perfect for evening campfires and marshmallow roasting with the grandchildren. Prior to the patio construction, new subsurface PVC piping was installed to channel water away from the house, under the patio, and to daylight about 100 ft. further into the side yard where it could properly drain. To construct the patio, the existing dry laid brick walks and patio were recycled as a border around a gray colored concrete paver that mimics the look of more expensive PA Bluestone, an often used companion to brick. The smooth surface texture and tight joint provide a barefoot friendly walking surface that stays cooler in the hot summer sun. The patio itself is also pitched so as to drain runoff to the lower end of the yard in case of a failure in the drain piping.
Along with providing several clear pathways between the porch, pool, and driveway the new patio includes an open air dining area, a fire pit area, and a seating/lounging area (not yet furnished at the time of the photo) for larger family gatherings or more intimate dinners and fire-side relaxation.
Photo Credit: Plantique, Mike Wimmer

Plantique, INC http://www.plantique.com
Entry Name: Classic Fireside Getaway
2014 PLNA Awards for Landscape Excellence Winner
Category: Hardscaping-Residential $30,000-$60,000
Award Level: Bronze
Photo Description:
The initial call from these homeowners was about a drainage issue. After having installed new roofing, siding, and a new porch enclosure, it was discovered that the original piping for the downspouts had failed. A few recent rainstorms had left a large pool of water behind the house. The new gutters and downspouts were now properly channeling water into a sub-surface piping system that no longer functioned. Obviously this had to be fixed, but after some further discussions, it was suggested that if a cost-effective solution could be found, perhaps a patio could be created along with the drainage solution. This would make the space between the porch and the pool more useful. The surfaces would have to be as kid-friendly as possible, as the homeowners foresaw frequent visits by their grandchildren. The flow of the spaces would have to be such that small bikes would be able to easily maneuver around chairs and tables.
After a site study was conducted, several issues were discovered. Pertaining to the drainage issue, it was determined that the grade sloped directly toward the porch from the pool. This not only channeled water toward the house and porch, but created a dam in an already shallow drainage swale that trapped water off to the side of the porch. Since the soil in this area is predominantly clay, water could sit in that area for days until it drained away. On the aesthetic side, a good part of the house’s façade was brick, the porch floor was brick, the small patio and walkways were brick, and the seating wall next to the pool was brick; there was a lot of brick. The challenge would be to find a cost-effective material that would contrast will with the brick, while creating a functional patio space that also facilitated water drainage.
The solution involved a significant re-grading of the area between the pool and the house, along with the installation of a completely new drain system to channel roof water away from the area. Working with the fixed points of the porch and foundation levels of the home, the slope that pitched toward the house was cut into to create a positive pitch away from the house. This created 20 in. high cut at the furthest point from the porch. To retain this, a segmental retaining wall block was used to form a curved seating wall around a mortared brick fire ring, perfect for evening campfires and marshmallow roasting with the grandchildren. Prior to the patio construction, new subsurface PVC piping was installed to channel water away from the house, under the patio, and to daylight about 100 ft. further into the side yard where it could properly drain. To construct the patio, the existing dry laid brick walks and patio were recycled as a border around a gray colored concrete paver that mimics the look of more expensive PA Bluestone, an often used companion to brick. The smooth surface texture and tight joint provide a barefoot friendly walking surface that stays cooler in the hot summer sun. The patio itself is also pitched so as to drain runoff to the lower end of the yard in case of a failure in the drain piping.
Along with providing several clear pathways between the porch, pool, and driveway the new patio includes an open air dining area, a fire pit area, and a seating/lounging area (not yet furnished at the time of the photo) for larger family gatherings or more intimate dinners and fire-side relaxation.
Photo Credit: Plantique, Mike Wimmer

When your pipes burst, a toilet overflows, or you notice suspicious dampness, you need more than a plumber—you need an emergency plumber in Atlanta
you can trust. Meet Atlantis Plumbing, a family-owned, trusted local company serving the greater Atlanta area with fast, friendly, and reliable plumbing services 24/7.
Decades of Experience Rooted in the Community
Established over 60 years ago and now with thousands of satisfied customers, Atlantis Plumbing has built a reputation on steady, dependable service. Their licensed professionals bring years of experience to every job, giving you peace of mind when you're dealing with urgent, unexpected plumbing disasters.
24/7 Availability When You Need It Most
Emergencies don't wait for business hours—and neither does Atlantis. With around-the-clock service, including live operators ready to take your call, they ensure help is just a phone call away. Whether it’s the middle of the night or a busy weekend, Atlantis is on call and on site fast.
Upfront Pricing and Honest Communication
A plumbing emergency shouldn't add financial stress. Atlantis offers transparent, upfront pricing so you're never blindsided. Before any work begins, they'll provide a clear estimate—no hidden fees, no surprises.
Speed Meets Expertise
Emergencies demand swift action—but not at the cost of quality. Atlantis strikes the perfect balance: rapid response paired with the skilled, licensed professionals who understand the complexity of modern plumbing systems.
Fully Equipped to Handle Any Crisis
From burst water lines to sewer backups and leaking water heaters, Atlantis’s team carries the tools and know-how to address your emergency promptly:
• Water leaks: Quick diagnosis and repair, including high water bill analysis.
• Clogged drains and sewer issues: Advanced solutions ranging from snaking to hydro-jetting or camera inspection.
• Sewer repair & replacement: Trenchless methods available to minimize disruption.
• Water heaters: Repair or replacement—gas, electric, or tankless.
• Polybutylene pipes: Experts in identifying and replacing this outdated material.
• Gas leaks: Safe, professional response (after gas company clearance).
Trusted Service with a Personal Touch
Emergencies are stressful. Atlantis eases the burden with professional, courteous technicians who get the job done with respect and care for your home. Their approach is old-fashioned in the best way—friendly, honest, and dedicated to customer satisfaction.
Multiple local voices have recommended them as the one plumber they’d always call. It's that level of trust that assures homeowners and businesses alike in times of crisis.
Comprehensive Coverage Throughout Metro Atlanta
Whether you're in Atlanta proper or surrounding areas—like Marietta, Smyrna, Roswell, or Lawrenceville—Atlantis covers it. Their reach spans Fulton, Cobb, Gwinnett, Dekalb, Cherokee, and more, ensuring emergency plumbing help isn't far when you need it most.
Value Beyond the Emergency
Atlantis doesn’t just put out fires—they help prevent them. With services like free high water bill analysis and long-term maintenance options, they add value that stretches well beyond the immediate fix.
They offer senior and military discounts, plus financing with approved credit—helping ease the financial burden of unavoidable plumbing repairs.
Hiring an Emergency Plumber: Why Atlantis Stands Out
1. 24/7 live support—get help when it counts.
2. Licensed, experienced plumbers—quality you can rely on.
3. Transparent pricing—know what you're paying.
4. Quick, efficient responses—fast relief without sacrificing standards.
5. Wide range of services—from leaks to sewers to water heaters.
6. Easy scheduling and flexible payment options—designed for your convenience.
Sample Emergency Scenarios & How Atlantis Helps
Your Basement Is Flooding at 2 AM
A frozen pipe has burst, sending water everywhere. You call Atlantis. Their team answers immediately, dispatches licensed plumbers within the hour, stops the leak, assesses the damage, and begins cleanup and pipe repair—all before breakfast.
Sewer Backup During Dinner Party
Your main sewer line backs up, and your guests are greeting more than your cooking. Atlantis arrives pronto, uses a camera inspection to pinpoint the blockage, resolves it with hydro-jetting or replacement, and gets everything draining again—without using your yard as a trench.
Unexplained Spike in Your Water Bill
You notice a huge spike in your bill—but no visible leak. Atlantis sends a tech for a free high water bill analysis, finds a small underground leak, and repairs it promptly—saving you money on unnecessary wastage.
Water Heater Fails on a Winter Morning
No hot water on a chilly morning? Atlantis arrives, diagnoses the heater issue, and either repairs it or replaces it with a similarly warranted unit—serving gas, electric, or tankless systems with equal confidence.
Outdated Polybutylene Pipes Start Failing
You suspect your home has older polybutylene piping prone to leaks. Atlantis offers specialized inspection and replacement options, bringing your plumbing system back up to modern safety and reliability standards.
Final Thought
In crisis situations, you don’t want to waste time or money. Atlantis Plumbing delivers fast, knowledgeable, and compassionate emergency plumbing services across Atlanta. With fair pricing, skilled professionals, and full-service capabilities—from leak detection to sewer repair to water heater replacement—you’re not just hiring a plumber. You’re hiring peace of mind.
When plumbing emergencies strike, remember: Atlantis Plumbing is standing by, 24/7, ready to restore order to your home or business.

Example of a small classic 3/4 white tile and stone tile mosaic tile floor alcove shower design in Chicago with an undermount sink, recessed-panel cabinets, black cabinets, quartzite countertops, a two-piece toilet and gray walls

Carlsbad new construction; spanish courtyard and edible garden.
Design ideas for a mediterranean courtyard concrete paver landscaping in San Diego.
Design ideas for a mediterranean courtyard concrete paver landscaping in San Diego.

Ever notice how your iron fence looks worse every spring after another Chicago winter? That slow deterioration is not cosmetic - it is active metal failure that compounds every freeze-thaw cycle until replacement becomes the only option. Windy City Painters works with homeowners across the Chicago North Side and Near West Side to restore original iron fencing on greystones, two-flats, Victorian brownstones, and coach houses before that point is reached.
PROJECT OVERVIEW
This iron fence restoration involved a classic Chicago residential property with original wrought iron fencing showing surface rust across the majority of pickets, flaking previous paint coats, and localized deep pitting near the base rails. A structural check identified two loose pickets requiring welding before any surface preparation or coating began. Total linear footage fell in the mid-range for a standard Chicago residential lot.
MATERIALS AND PRODUCTS
Windy City Painters selected Ospho rust converter for chemically neutralizing active iron oxide before priming. Ospho reacts with rust to form a stable phosphate compound that stops corrosion progression rather than simply sealing over it. Sherwin-Williams DTM rust-inhibitive primer was applied to all bare and converted surfaces, followed by two finish coats of Rust-Oleum DTM in satin black. DTM - direct to metal - formulas provide corrosion inhibitors built into the coating matrix, which matters significantly in Chicago's climate.
THE PROCESS
Step 1 - Structural Assessment and Welding Coordination. Before any surface preparation begins, Windy City Painters inspects every picket and rail connection for structural integrity. Loose or cracked iron must be welded before coating. Paint applied over a compromised joint will fail within one season as movement continues to break the bond. On this project, two pickets were tack-welded by a coordinating welder before prep started.
Step 2 - Wire Wheel Grinding and Needle Gun Descaling. All rusted sections were ground to bare or near-bare metal using wire wheel attachments and needle gun descaling tools. This step removes loose scale, flaking previous coatings, and surface contamination that would prevent primer adhesion. Skipping mechanical prep is the single most common reason iron fence paint fails prematurely on Chicago properties.
Step 3 - Ospho Rust Converter Application. Ospho was brushed into all pitted and converted areas and allowed to cure fully. The phosphoric acid chemistry converts iron oxide into iron phosphate, arresting active rust and creating a surface that accepts primer more effectively than bare metal alone. Corroseal is an equivalent alternative used on projects with heavier pitting.
Step 4 - DTM Primer and Finish Coat Application. Sherwin-Williams DTM rust-inhibitive primer was applied across all prepared surfaces. Two topcoats of Rust-Oleum DTM in satin black followed after full primer cure. DTM finish coats add a second corrosion-inhibiting layer and provide the UV and weather resistance needed for Chicago exterior iron work.
CHICAGO-SPECIFIC CHALLENGES
Chicago iron fencing faces conditions that accelerate corrosion faster than most US markets. Lake humidity keeps metal surface moisture elevated through much of the year. Road salt splash from winter maintenance reaches fencing along parkways and sidewalk edges, introducing chlorides that aggressively attack iron. Freeze-thaw cycles expand any rust pocket that has formed under paint, lifting coatings from the inside and creating the classic bubbled-paint appearance homeowners notice every spring.
WHAT TO EXPECT LONG-TERM
With Ospho conversion, DTM primer, and two DTM finish coats properly applied over mechanically prepared surfaces, most Chicago residential iron fences hold 5-8 years before needing significant touch-up. Annual visual inspection for any chips or bare spots, with immediate touch-up using Rust-Oleum DTM, extends that window considerably.
PRO TIPS
Tip 1 - Address any bare metal spot the same season you notice it. A pinhole of exposed iron becomes a rust bubble within one Chicago winter and a flaking section by the following spring.
Tip 2 - Never paint over active rust without a converter step. Ospho or Corroseal is inexpensive insurance against a complete repaint two years early.
Tip 3 - Check picket bases at grade level every spring. Ground contact accelerates corrosion at the base faster than anywhere else on the fence. Catching it early keeps welding out of the equation.
Contact Windy City Painters at windypainters.com for a project estimate.
FAQ
Q: What does iron fence painting cost in Chicago? A: Residential iron fence painting with proper rust prep typically runs $300-$900 for standard lot footage. Windy City Painters provides itemized estimates based on linear footage, rust severity, and whether structural welding is required before surface preparation begins.
Q: Do you paint over rust or remove it first? A: Windy City Painters always addresses active rust before priming. Ospho or Corroseal rust converter chemically neutralizes iron oxide, and wire wheel grinding removes loose scale - coating over unaddressed rust guarantees early failure on Chicago iron fences.
Q: When does an iron fence need welding before painting? A: Loose pickets, cracked rails, or connections with visible movement require welding before any coating work begins. Paint cannot stabilize a structural joint - Windy City Painters coordinates with welders when this condition is identified during initial assessment.
Q: How long does iron fence paint last in Chicago? A: With mechanical prep, Ospho conversion, and Sherwin-Williams or Rust-Oleum DTM coatings, properly restored iron fencing holds 5-8 years in Chicago's freeze-thaw climate before needing significant maintenance.
Q: Is Ospho better than Corroseal for Chicago iron fences? A: Both are effective rust converters. Ospho is a liquid phosphoric acid treatment suited for moderate rust and pitting. Corroseal is a latex-based converter-primer hybrid better suited to heavier rust profiles. Windy City Painters selects based on site conditions.
Q: What finish sheen works best on iron fencing? A: Satin or semi-gloss black is the traditional and most durable choice for Chicago greystone and brownstone properties. Satin hides minor surface imperfections better than gloss while still providing adequate UV and moisture resistance.
Q: Can iron fence painting be done in spring or fall in Chicago? A: Yes. Windy City Painters schedules iron fence work in temperatures above 50 degrees Fahrenheit with low ambient humidity - spring and early fall are often ideal windows that avoid both winter cold and peak summer humidity.

Does your iron fence look like Chicago winters have been winning the battle for years? That slow orange spread across pickets and rails is not just an eyesore - it is active corrosion undermining the structural integrity of metalwork that frames some of Chicago's most architecturally significant residential properties. Windy City Painters addresses iron fence rust at the source, using professional-grade rust conversion chemistry and direct-to-metal coatings engineered for the specific abuse Chicago's climate delivers.
PROJECT OVERVIEW
This project involved a heavily rusted ornamental iron fence on a Chicago North Side residential property. Rust had progressed beyond surface oxidation into moderate pitting on lower rails, a pattern Windy City Painters sees frequently on properties within blocks of treated roadways where salt drift accelerates corrosion. The scope included mechanical descaling, chemical rust conversion, DTM priming, and a durable gloss topcoat matched to the original fence color.
MATERIALS AND PRODUCTS
Ospho Rust Converter: A phosphoric acid-based treatment that chemically reacts with iron oxide, converting it to iron phosphate - a stable, paintable compound. Corroseal Water-Based Rust Converter is an alternative for situations requiring lower VOC handling. Rust-Oleum Professional DTM Primer and Sherwin-Williams DTM Acrylic Coating serve as the primary coating system, formulated for direct metal adhesion with built-in rust inhibitors. For structurally compromised sections, welding is coordinated before any chemical or coating work begins.
THE PROCESS
Step 1 - Mechanical Preparation: Wire wheel grinding on an angle grinder removes loose rust scale, mill scale, and flaking paint. For advanced pitting, Windy City Painters deploys a needle gun descaler, which impacts the metal surface thousands of times per minute to drive scale from deep cavities. This step determines whether the fence can be coated or needs welding first.
Step 2 - Chemical Rust Conversion: Ospho or Corroseal is brushed onto all remaining rust surface. These products do not simply seal rust - they react with it. The conversion process takes 24 hours to fully cure before topcoating. Skipping this step is the single most common reason iron fence paint jobs fail prematurely.
Step 3 - DTM Priming: Sherwin-Williams DTM or Rust-Oleum DTM primer is applied by brush to ensure full penetration around decorative elements, picket tips, and weld joints. Spray application is used on open sections for even film build. DTM formulations bond directly to prepared metal without a separate shop primer.
Step 4 - Finish Coating: A DTM topcoat in gloss or semi-gloss provides the final weather barrier. Gloss is preferred for iron fencing because the harder surface sheds water more effectively and resists dirt adhesion between maintenance cycles. Windy City Painters applies two finish coats for maximum film thickness.
CHICAGO-SPECIFIC CHALLENGES
Chicago's freeze-thaw cycle is the primary enemy of iron fence coatings. Water infiltrates micro-cracks in paint film, freezes, expands, and delaminate coating from beneath. Properties on the North Side and Near West Side also contend with lake-effect humidity that keeps metal surfaces damp for extended periods, slowing cure times and promoting under-film corrosion if preparation is inadequate. Greystones and Victorian brownstones typically feature ornate cast iron or wrought iron fencing with complex geometries that trap moisture and demand hand-brush application to fully coat recesses.
WHAT TO EXPECT LONG-TERM
A properly prepared and coated iron fence in Chicago should hold 5-8 years before requiring recoating. Annual inspection of weld joints, picket tips, and base rails closest to grade will identify early rust return. Addressing small spots with touch-up converter and primer extends service life significantly between full recoats.
PRO TIPS
Tip 1: Never pressure wash a rusted iron fence immediately before painting. Water drives moisture into pits and delays the surface drying needed for chemical converter adhesion. Allow 48 hours of dry weather before prep begins.
Tip 2: Picket tips and rail ends are the first failure points. These end-grain equivalent areas on metal concentrate corrosion. Ask your painter to apply an extra brush coat to every tip and terminus.
Tip 3: Black is the traditional and most durable color choice for iron fencing. Dark pigments absorb UV rather than reflecting it, reducing thermal cycling stress on the paint film at color change boundaries.
FAQ
Q: What does iron fence painting cost in Chicago?
A: Most residential iron fence painting in Chicago ranges from $400 to $1,200 depending on linear footage, rust severity, prep method required, and whether structural welding is needed before Windy City Painters can coat the surface.
Q: How do I know if my fence needs a welder before painting?
A: If you can press a screwdriver through a rail or picket, the metal wall has failed. Windy City Painters inspects all fencing before quoting and identifies weld-required sections so repairs happen before any coating investment.
Q: Is Ospho or Corroseal better for my fence?
A: Both convert rust effectively. Ospho is solvent-based and fast-acting, preferred for heavy rust. Corroseal is water-based with lower odor, preferred in enclosed or residential settings where off-gassing is a concern. Windy City Painters selects based on site conditions.
Q: Can iron fence painting be done in winter in Chicago?
A: Application requires temperatures above 50 degrees Fahrenheit for DTM coatings to cure properly. Most iron fence painting in Chicago runs April through October, with scheduling flexibility based on extended warm stretches.
Q: How do I maintain my fence between professional recoats?
A: Inspect annually in spring. Sand any rust spots to bare metal with 80-grit paper, apply Ospho, let cure 24 hours, then spot-prime with DTM primer and touch up with finish coat. Windy City Painters offers maintenance inspections.
Q: Do you paint courtyard building fences and coach house gates?
A: Yes. Multi-unit courtyard buildings and coach houses are common in the North Side neighborhoods Windy City Painters serves. We coordinate with property managers and HOAs for larger perimeter fence projects.
Q: How long after painting can I touch the fence?
A: DTM coatings are typically dry to touch in 2-4 hours and hard dry in 24 hours. Full cure for maximum hardness takes 7 days. Windy City Painters advises against pressure washing or heavy contact during that cure window.
Visit windypainters.com to request your free iron fence assessment and project quote.

Ever notice how your iron fence looks worse every spring after Chicago winters? That steady seasonal decline is not inevitable - it is a preparation and coating problem that Windy City Painters solves with systematic metal restoration.
PROJECT OVERVIEW
Iron fence painting in Chicago requires more than a fresh coat of paint. Chicago's freeze-thaw cycles, road salt exposure, and high seasonal humidity create conditions that destroy inadequately prepared metal coatings within a year or two. Windy City Painters approaches every iron fence project as a corrosion control job first and a painting job second. The result is a finish that holds up through multiple Chicago winters without peeling, bubbling, or allowing rust to spread beneath the surface.
MAterials AND PRODUCTS
Windy City Painters selects products specifically rated for ferrous metal in high-corrosion environments. For rust conversion, we use Ospho phosphoric acid treatment or Corroseal water-based rust converter, both of which chemically transform active rust into a stable iron phosphate compound. For priming and finish coats, Rust-Oleum DTM and Sherwin-Williams DTM rust-inhibitive direct-to-metal coatings provide excellent adhesion, flexibility, and moisture resistance. These products are formulated to expand and contract with metal through temperature swings without cracking.
THE PROCESS
Step 1 - Mechanical Surface Preparation: Wire wheel grinding and needle gun descaling remove all loose rust, failing paint, and mill scale. This step is non-negotiable. No rust-inhibitive coating performs correctly over contaminated or loosely adhered substrate. Windy City Painters treats this phase as the foundation of the entire project.
Step 2 - Rust Conversion Treatment: Ospho or Corroseal is applied to any remaining rust after mechanical prep. These products do not simply cover rust - they react with iron oxide to create iron phosphate, a chemically stable surface that accepts primer without ongoing corrosion underneath. Contact time and full surface saturation are critical.
Step 3 - Rust-Inhibitive Priming: Rust-Oleum DTM or Sherwin-Williams DTM rust-inhibitive primer is applied by brush to ensure full penetration into ornamental details, crevices, and rail joints where moisture collects. Spray application alone misses critical contact points on older Chicago ironwork.
Step 4 - Finish Coat Application: Two finish coats of Rust-Oleum DTM or Sherwin-Williams DTM topcoat deliver color saturation, UV stability, and a hard film that resists chipping from foot traffic, landscaping equipment, and seasonal debris impact common to Chicago urban properties.
CHICAGO-SPECIFIC CHALLENGES
Chicago iron fences face a combination of stressors that accelerates failure compared to milder climates. Road salt spray migrates well beyond the street surface and deposits chlorides on fence metal throughout winter. Freeze-thaw cycles - sometimes occurring multiple times in a single week - expand and contract metal enough to crack coatings that lack flexibility. Older ornamental iron on greystones, Victorian brownstones, two-flats, and courtyard buildings often has decades of paint buildup that must be addressed before any restoration coating will perform correctly.
WHAT TO EXPECT LONG-TERM
A properly prepared and coated iron fence painted by Windy City Painters typically performs five to seven years before requiring recoating in Chicago conditions. Annual spring inspection for salt residue, minor touch-up of any chips within the first season, and a light rinse to remove winter road chemicals all extend coating life. Structural rust that has compromised rail integrity should be addressed by a welder before painting - Windy City Painters identifies these conditions during initial assessment.
PRO TIPS
Tip 1: Never paint over rust without a conversion treatment first. Paint applied over active rust creates a sealed environment where corrosion accelerates invisibly until the coating fails completely.
Tip 2: Budget for welded repairs on iron fences older than twenty-five years. Ornamental iron on Chicago historic properties often has pitting or section loss that painting alone cannot address structurally.
Tip 3: Time your iron fence painting project for late spring or early fall when temperatures stay consistently above fifty degrees overnight. DTM coatings need adequate cure time before the first freeze to achieve full hardness.
Call Windy City Painters to schedule your iron fence assessment at windypainters.com.
FAQ
Q: What is the cost of iron fence painting in Chicago?
A: Iron fence painting cost in Chicago varies by linear footage, rust severity, and ornamental complexity. Windy City Painters provides free on-site estimates so you receive an accurate number before any commitment is made.
Q: Do you need to remove all old paint before repainting an iron fence?
A: Not always. Windy City Painters assesses existing coating adhesion. Sound paint in good condition can remain. Peeling, bubbling, or paint over active rust must be removed for the new coating to perform correctly.
Q: Can structural rust on an iron fence be repaired without replacing the fence?
A: Depends on severity. Surface and moderate rust responds well to conversion treatment and DTM coatings. If rust has caused section loss or structural weakness, Windy City Painters recommends a welder address those areas before painting.
Q: How long does iron fence painting take?
A: Most residential iron fence projects take one to three days including prep, rust conversion, priming, and two finish coats. Windy City Painters sequences cure time between coats to ensure full adhesion at every stage.
Q: What is the best paint for iron fences in Chicago?
A: Rust-Oleum DTM and Sherwin-Williams DTM rust-inhibitive coatings are among the best options for Chicago iron fences due to their flexibility, moisture resistance, and ability to handle freeze-thaw temperature swings without cracking.
Q: Is it worth painting an old iron fence or should I replace it?
A: Painting is almost always more cost-effective than replacement for structurally sound iron. Windy City Painters assesses every fence honestly and only recommends replacement when restoration would not deliver a durable result.
Q: How do I find a reliable iron fence painting contractor near me in Chicago?
A: Look for contractors who specify rust conversion products by name, explain their mechanical prep process, and provide references from similar Chicago properties. Windy City Painters documents every step and warranties our work.

Sandprints Photography
Inspiration for a mid-sized contemporary backyard deck remodel in San Luis Obispo with a fire pit and no cover
Inspiration for a mid-sized contemporary backyard deck remodel in San Luis Obispo with a fire pit and no cover

Terren Landscapes http://www.terrenlandscapes.com
2014 PLNA Awards for Landscape Excellence Winner
Category: Residential $60,000-$120,000
Award Level: Silver
Project Description:
We were contracted by the family to create a master plan for the property. They
were experiencing extreme drainage and erosion problems due to the surrounding properties’
drastic grade changes. Erosion had caused the rear lawn to sink in various areas and the existing
rear patio spaces were failing. The client wanted to rebuild their patios and walkways, repave
their driveway and give their home more visual appeal. Most importantly, they wanted an
environmentally friendly solution.
Our design solution was to create a rain garden that would slow storm water runoff, allow
for percolation, and promote infiltration, while permitting excess clean water to enter the storm
drain at the street with slower velocity. The rain garden acts as a temporary holding space that
allows the earth to slowly absorb water, rather than overwhelm the nearby storm drain. Our first
objective was to conduct a percolation test to determine the amount of clay soil that needed to be
removed before reaching the sandy loam layer. A percolation test and storm water calculations
were generated to accommodate a 1” rain event. Based on our calculations and the small size of
the property, we determined a depth of 18” was necessary for optimal holding capacity. We
removed 18” of clay soil until a layer of sandy loam was encountered. Next, the soil was amended
with compost and sand to create a highly porous planting media for the basin of the garden. We
piped the three existing rear downspouts to the rain garden area to capture for infiltration and
alleviate runoff throughout the rear lawn and patio space. We installed an 18” wide over-flow
standpipe at a 24” depth into the ground that outlets to a stone swale that carries the water to the
property edge. As an added means of holding the maximum amount of water, we designed the
standpipe to sit 14” above grade. The height of this standpipe allows this rain garden to capture
14” of water before reaching the overflow capacity. We placed geotextile fabric to help reduce
migration of the stones into the soil and aid in the prevention of weeds and erosion. We heavily
planted the rain garden to further aid in absorption and to attract local wildlife. A native plant
palette of butterfly weed, Panicum, Joe-Pye weed, and asters form a colorful backdrop while the
basin was filled with obligate wetland plants such as royal ferns, irises and cardinal flowers. The
upper edges in the foreground are planted with Echinacea, Rudbeckia and Monarda, satisfying
the local bird community and adding bright seasonal colors. This garden effectively collects and
cleanses rainwater while creating a habitat for birds, frogs, and butterflies.
Our next challenge was to redesign the existing patios and walkways without increasing
impervious surfaces. According to township regulations this property was currently at its
maximum capacity, therefore we designed the front and rear patios with a slightly smaller
footprint to decrease their existing impervious surfaces.
New planting beds were designed throughout the entire property. Plants were chosen that
were tolerant of specific site conditions. For the rear yard, we choose a backdrop of witch hazel
and hollies to provide an evergreen screen as well as early spring color. We placed hydrangea
throughout to add summer color. We planted ostrich fern under the existing spruce tree to create
a lush floor. This area became an additional backdrop for the rain garden as well as a screen for
the neighboring property. We choose a combination of ‘Blue Star’ juniper and creeping jenny to
soften the existing rear wall with creepers. Around the rear patio areas we choose a combination
of Liatris, Rudbeckia and ‘Lo and Behold’ butterfly bush. This combination of plants works in
harmony with the rain garden and attracts additional butterflies.
For the front of the property we worked with an existing Japanese maple that provided
dense shade. We choose a shade-tolerant combination of Heuchera, Astilbe, ferns and hostas for
this area. We added more hydrangeas to the front foundation of the house to provide lush
layering of plant material and visual interest with additional summer blooms.
Overall, we were able to exceed the client’s needs and expectations in transforming their
property into a colorful paradise that attracts wildlife from season to season. The plant palette
provides seasonal interest and the rain garden has successfully decreased storm water runoff.
The new hardscape surfaces were designed and built with a slightly smaller footprint to decrease
impervious surfaces. This project is a positive example of how all properties, regardless of size,
can make an ecological difference by decreasing impervious surfaces and maintaining proper
storm water management.
Photo Credit:
Terren Landscapes

Terren Landscapes http://www.terrenlandscapes.com
2014 PLNA Awards for Landscape Excellence Winner
Category: Residential $60,000-$120,000
Award Level: Silver
Project Description:
We were contracted by the family to create a master plan for the property. They
were experiencing extreme drainage and erosion problems due to the surrounding properties’
drastic grade changes. Erosion had caused the rear lawn to sink in various areas and the existing
rear patio spaces were failing. The client wanted to rebuild their patios and walkways, repave
their driveway and give their home more visual appeal. Most importantly, they wanted an
environmentally friendly solution.
Our design solution was to create a rain garden that would slow storm water runoff, allow
for percolation, and promote infiltration, while permitting excess clean water to enter the storm
drain at the street with slower velocity. The rain garden acts as a temporary holding space that
allows the earth to slowly absorb water, rather than overwhelm the nearby storm drain. Our first
objective was to conduct a percolation test to determine the amount of clay soil that needed to be
removed before reaching the sandy loam layer. A percolation test and storm water calculations
were generated to accommodate a 1” rain event. Based on our calculations and the small size of
the property, we determined a depth of 18” was necessary for optimal holding capacity. We
removed 18” of clay soil until a layer of sandy loam was encountered. Next, the soil was amended
with compost and sand to create a highly porous planting media for the basin of the garden. We
piped the three existing rear downspouts to the rain garden area to capture for infiltration and
alleviate runoff throughout the rear lawn and patio space. We installed an 18” wide over-flow
standpipe at a 24” depth into the ground that outlets to a stone swale that carries the water to the
property edge. As an added means of holding the maximum amount of water, we designed the
standpipe to sit 14” above grade. The height of this standpipe allows this rain garden to capture
14” of water before reaching the overflow capacity. We placed geotextile fabric to help reduce
migration of the stones into the soil and aid in the prevention of weeds and erosion. We heavily
planted the rain garden to further aid in absorption and to attract local wildlife. A native plant
palette of butterfly weed, Panicum, Joe-Pye weed, and asters form a colorful backdrop while the
basin was filled with obligate wetland plants such as royal ferns, irises and cardinal flowers. The
upper edges in the foreground are planted with Echinacea, Rudbeckia and Monarda, satisfying
the local bird community and adding bright seasonal colors. This garden effectively collects and
cleanses rainwater while creating a habitat for birds, frogs, and butterflies.
Our next challenge was to redesign the existing patios and walkways without increasing
impervious surfaces. According to township regulations this property was currently at its
maximum capacity, therefore we designed the front and rear patios with a slightly smaller
footprint to decrease their existing impervious surfaces.
New planting beds were designed throughout the entire property. Plants were chosen that
were tolerant of specific site conditions. For the rear yard, we choose a backdrop of witch hazel
and hollies to provide an evergreen screen as well as early spring color. We placed hydrangea
throughout to add summer color. We planted ostrich fern under the existing spruce tree to create
a lush floor. This area became an additional backdrop for the rain garden as well as a screen for
the neighboring property. We choose a combination of ‘Blue Star’ juniper and creeping jenny to
soften the existing rear wall with creepers. Around the rear patio areas we choose a combination
of Liatris, Rudbeckia and ‘Lo and Behold’ butterfly bush. This combination of plants works in
harmony with the rain garden and attracts additional butterflies.
For the front of the property we worked with an existing Japanese maple that provided
dense shade. We choose a shade-tolerant combination of Heuchera, Astilbe, ferns and hostas for
this area. We added more hydrangeas to the front foundation of the house to provide lush
layering of plant material and visual interest with additional summer blooms.
Overall, we were able to exceed the client’s needs and expectations in transforming their
property into a colorful paradise that attracts wildlife from season to season. The plant palette
provides seasonal interest and the rain garden has successfully decreased storm water runoff.
The new hardscape surfaces were designed and built with a slightly smaller footprint to decrease
impervious surfaces. This project is a positive example of how all properties, regardless of size,
can make an ecological difference by decreasing impervious surfaces and maintaining proper
storm water management.
Photo Credit:
Terren Landscapes

Full-overlay Rustic Beech cabinets in the "Charleston" door style and "Briarwood" finish.
Village Home Stores
Example of a large mountain style kitchen design in Chicago
Example of a large mountain style kitchen design in Chicago

A beautiful design of Thassos and Mother of Pearl in a very unique shade of blue!
Minimalist bathroom photo in New York
Minimalist bathroom photo in New York
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