Design Portfolio

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Heart of the Campus, The Miquon School

Professional Work | SMP Architects

Exploring Building Simulation Software

Professional Work | SMP Architects

Revitalizing Camden: Transforming Urban Housing into Regenerative Communities

Graduate Thesis

Renderings & Graphics

Professional Work | SMP Architects

Projects Graphic Design Photography

Heart of the Campus, The Miquon School

Professional Work - SMP Architects

Heart of the Campus building at The Miquon School incorporates a new library space and two classrooms each with a mezzanine level. The design follows the ethos of the School for exploration and being outdoors. It is equipped with a fire pole and slide that connects the classroom deck/ porch to grade encouraging play and connection to nature.

Location: Conshohocken, PA

Completion: 2024

Area: 4,350 sq.ft | Estimated Cost: $3,000,000

Structural Engineer: Ann Rothmann

MEP Engineers: Chestnut Engineering

Landscape Architects: Ground Reconsidered

Civil: Grist Design

Contractor: Wolfe Scott Associates

A design charrette was conducted in April 2022, participants included school students, staff, faculty, parents, leadership and design teams. 4 groups developed designs through the day and a final stacked design was chosen. The idea was to stack the library and classrooms and reduce the horizontal footprint, to maintain more area on campus to be the playground. Schematic design stage massing energy modeling was done while roof forms were explored. The final design went through major changes during design development & value engineering, with a smaller layout

Software Used: Revit + Insight | EUI unit: kBTU/sq.ft/year

Exploring Building Simulation Software

Professional Work - SMP Architects

Early on at SMP Architects, I worked on exploring different building simulation software to understand which would best suit our requirements and integrate well with our workflow. Using a test case of a small residential project in the schematic phase, I generated output from three software programs. The major uses would be to -

• To make design decisions informed by simulation results – Schematic design through Final Stages.

• Understanding & supporting impacts of certain design elements through metrics & visual data.

• Studying design options towards Net-Zero/Net-Positive results.

Software

Low Revit + Insight 360

High Rhino + Grasshopper (Ladybug/Honeybee tools)

Revit + Cove.tool

Medium

Free Plug-in with Revit subscription, might need to purchase cloud credits for Lighting analysis

Approx. US$ 995 (Permanent license, does not expire)

Approximate range : $5500 - $9500 annual subscription for unlimited number of projects. (Most expensive amongst other tools)

Cautions Optimisms

• Project work is already done in Revit

• Good for Solar Radiation studies

• Very accurate results, constantly updating software

• Useful for almost any type of simulation or analysis

• Simulation is cloud based and easy to follow

• Can collaborate with engineers/consultants on the cloud platform

• Revit is more of a construction documentation tool than simulation

• Daylighting & Energy studies might not be as clean and reliable as other tools

• Need to model simultaneously on Rhino as the project progresses

• Needs knowledge of coding and scripting in Grasshopper

• Revit is more of a construction documentation tool than simulation

Revit + Insight seemed to be the most appropriate choice for the office especially with initiating in-house early stage building simulation. Since all the projects were modeled in Revit, using Insight helped seamlessly integrate the simulation into project workflows. While other software have more accuracy and update faster with new features and capabilities - this tool has been easy to learn and use while being cost efficient.

Creating a Model Generating Energy Model (within Revit)

Upload & View Results in Insight 360 (on the cloud)

Run Lighting Analysis (using Revit plug-in)

Optimize (to see impact on Energy Use Intensity)

Results Generated

EUI
Revit + Insight 360
Rhino + Grasshopper (Ladybug/ Honeybee tools)
Revit + cove.tool

Revitalizing Camden

Transforming Urban Housing into a Regenerative Community

Project Type: Graduate Thesis

Thesis Guide: Robert Fryer, Chitsanzo Isaac

Site: Camden City, NJ

Complete Thesis Paper:

Thesis Presentation:

Key Highlights: Regenerative Development, Incorporating Scales, Sustainable Design & Metrics

Located across the Delaware River from Philadelphia, a once-bustling Camden lies in hibernation. Today, Camden City is brimming with potential, but many are hesitant to be there. The city faced a steady decline during the postindustrial era with lack of jobs, racial riots, increased environmental degradation, high crime rates and abandoned properties. The seed for this thesis came on one such visit to the Camden waterfront, questioning the lack of people enjoying the nice waterfront with beautiful views of Philadelphia’s skyline.

Thesis Statement: Bytransformingurbanhousingintoregenerativecommunities, environmentaldegradationfrompastindustriesandcurrentunjust practiceswillreverse,newgreenjobswillbecreated,andthesocioeconomicfabricofCamdenCitywillbegintothriveagain.

Camden Waterfront at night

Current housing stock is aging, poorly maintained & abandoned. In need of urgent repairs & redevelopment. Environmental degradation from past industries disproportionately affects low income, minority communities. Tax breaks and incentives to big corporations. Large scale disinvestment resulting in rapid decline of Camden City.

Lack of well paying jobs, increased crimes and a strained socio-economic fabric.

Food Insecurity35,000 residents facing food insecurity in Camden City.

This thesis approaches the design through the lens of regenerative development. In doing so, the project considers three levels of system. The innermost level is the housing scale, Ablett Village Housing Development which is nested within the second level that is the neighborhood of Cramer Hill which is then nested within the larger whole of Camden City. For the scope of the project, the boundaries are defined by these three levels but the positive impact of the solution continues to impact smaller scales at housing cluster level and larger scales, i.e. at the New Jersey state level.

Principles of Regenerative Development

Work with whole systems

Work with potential, not problems

Develop capability

Build a collaborative field

Work with nested systems

Find nodal interventions

Work from uniqueness of each place

Nature of Place:

Strong resilient community, strong art and cultural fabric, waterfront city

Whole System: Neighborhood Scale

Three neighborhoods in Camden City were shortlisted - Cramer Hill, Waterfront South & Lanning/ Bergen Square. Based

Each cluster includes four townhouses designed to fit like a puzzle. EUI was analyzed and studied to understand how different roof forms impact the energy use of the cluster. Using Integral Framework as a basis, four options were studied. The roof form for the Experience approach was selected for its lower EUI and potential of a butterfly roof for rainwater harvesting. Software used: Revit Insight | EUI Unit : kBTU/sq ft/ year

ExperienceLarger surface area for PV panels, roof sloping towards the South

CultureConventional roof form similar to neighboring buildings, PV panels on sloping roof facing South

Further iterations of the selected roof form were studied.

KEY TAKEAWAYS

Two options were close in the resultant energy use, a version of the form with butterfly roof was selected.

• Potential to harvest rainwater

• Available surface area for solar panels

• Simplicity of roof form

PerformanceLarger surface area for PV panels, roof sloping towards the South

SystemsFlat green roof with portion of roof sloping towards South

STUDYING WINDOW TO WALL RATIO (WWR)

The final design ensures ample light into the main occupiable spaces - living rooms, bedroom and kitchen. On the second floor, both bathrooms have a clerestory window to bring in daylight while a skylight allows natural light into the corridors. The South elevation has more windows to bring in the much needed daylight in the winters, the

KEY TAKEAWAYS

Most spaces receive comfortable daylight within the range of 200 to 3000 lux. Cautions: Bathrooms in the middle units of the cluster receive low daylight & will require adequate artificial lighting at all times of the day.

First Floor Plan
Second Floor Plan

ENERGY USE INTENSITY COUNT DOWN

Chart below showcase the reduction in EUI at every step of the design development reaching net positive after including the energy generated by the PV array.

Butterfly Roof directs rainwater into channel
Channel aids flow of water into two downspouts
Cisterns on both sides collect and store rainwater

Renderings & Graphics

Professional Work - SMP Architects

This section showcases graphics for various projects at SMP Architects. Renderings include images used for fundraising during the several construction phases of The Philadelphia School, progress renderings for The Miquon School, a nature center and The French International School.

Software used: Revit + VRay + Photoshop | Revit + Photoshop | Canva

Plan axonometric view showing Phase 1 construction at The Philadelphia School

Multi purpose room at The Philadelphia School - operable glass partition dividing the space for different uses
Multi purpose room at The Philadelphia School - operable glass partition folded away to unify space for larger gatherings
Rendered view of kitchen space for group cooking lessons for students at The Philadelphia School
View of the Robotics space at The Philadelphia School
Adaptive Reuse of an existing building into an Exhibit Space , Garden workshop and Classroom with a green roof
View of the sensory play space at The Philadelphia School

Passion Projects

juisoniarch@gmail.com

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