1 CYBER COMPANY
Workplace design for an international IT company
2 SERIO HEIGHT
Residential complex for Students and Bocconi university staff residence
3 ROMA HOUSE
Luxurious Residential Building Design
4 DUBLIN CAMPUS
23.8 ha of master plan and builing of center for creative design Dublin university future campus
E ducation
BuIldINg ANd ARchItectuRAl eNgINeeR
Graduated in Master of Building and architectural engineering at Politecnico di Milano with a focus on sustainability and green energy and a wide experience gained in international architecture and construction firms. Managing architectural and design projects with the aim of transforming the built environment into more energy efficient systems. Qualified with a holistic knowledge of design strategies and cutting edge building technologies and methodologies.
Mar2017-Oct 2020 Master of Science, Building and Architectural Engineering
Politecnico Di Milano , construction engineering department Milan (Lecco Campus), Italy
Thesis subject: Future development of Dublin University Campus, design of intrinsic Master plan (335,000 m2) and a Net zero energy building for the centre of creative design (8000 m2). An eco-friendly building with renewable and efficient energy solutions, affirming sustainable values, integrated with energy-saving, green technologies and response to changes of climatic conditions and energy demands of its users with technologies like Solar PVs, Geo-thermal energy systems ,HVAC systems and materials.
Sep 2009-Feb 2012 Bachelor of Engineering, Architectural Engineering
University of Ahvaz
Ahvaz, Iran
Thesis subject: Design of A faculty of Architecture in Ahvaz/Iran with technological approaches and energy efficient solutions respecting campus environment and bio diversity.
Sep 2006-Sep 2008 Associate degree, Architectural drawing
Azad University of Tehran
Tehran, Iran
c E rtificat E s
2020 BIM application for engineeres - National Taiwan University
2019 Augmented reality application for architects - Politecnico di Milano
2017 IELTS C1 Level - Tehran IELTS institute
2012 Revit Architecture -Tehran Institute of Technology
Augmented and virtual reality for architecture and civil engineering
Politecnico di Milano
Development of an architectural project scene in unity program and application of Oculus devices for an architectural exhibition in Politecnico Di Milano
Future ways of living 3- Media and Entertainment
George Brown college Toronto
Design and consultancy of a sustainable future based vision for Media and entertainment sector for year of 2050, aiming to investigate and visualize the past and present forces shaping future which inform an understanding of sustainablity.
Nov 2022- Present Project Manager
Drees & Sommer Netherlands / Rotterdam, The Netherlands
• Responsible of project development from start to hand over
• Coordinating and managing project tasks and deliverables
• Point of contact with clients for project progress and timelines
• Designing office for highend international brands
• Cost and time management
• Construction site visits to follow actual progress of the project
•Projects: - BMW Group
-KnowBe4
-Atalmedial
Oct 2020-Oct 2022
Architectural Engineer
Vega Engineering
-Drees and sommer Eindhoven office
-Global switch
Apr 2011-Feb 2017
•Participating in all phases of design, conceptual design to final stages of construction
•Designing buildings of different scales such as residential, villas, public buildings, shops, hotels,...
•Providing technical detailing of structure and architectural drawings
•Preparation of municipality drawings and documents for building permits
•3D modelling and rendering, from concept to final renders of the building
•Assisting project manager with reports, timetables and providing inputs for meetings with clients and preparation of daily schedules and work coordination
•Attending client meetings and consulting them for design, material choices and financial advices
Architectural Engineer
Tarh Omran Construction Company / Tehran, Iran
•Designing high-end residential, commercial and mixed-use buildings
•Providing materials list , cost estimation and construction drawings to comply with the project budget
•Ensuring consistency of MEP drawings with architectural plan
•Coordinating structural engineers to solve technical problems conflicting architecture design
•Contributing to construction development with preparation of foundation plans
•Preparing of drawings with specific building codes for building permit
•Creating 2D drawings for floor plans of residential and mixed-use buildings
•Designing of façade with technical details
•Creating landscape design and interior planning of high-end residential buildings
skills
AutoCAD(2D&3D)
BIM
Revit
Indesign
Photoshop Office
Grasshopper
Illustrator
Unity
Primavera P6
Sketchup
Rhino
Sefaira
Excel
languagEs
Farsi Native
English Fluent
Italian Intermediate
Dutch Intermediate
Arabic Basic hobbiEs
Pilates, Friends, Photography, Running, Traveling, Dancing, Meditation, Painting, coNtAct Me
INTERNATIONAL CYBERSECURITY
COMPANYWORKPLACE DESIGN
DREES & SOMMER NETHERLANDS Y. 2023
Supervised by Pim Prins
Softwares
• Autocad, Revit, Sketchup, Photoshop, Illustrator,Excel
Main Roles
• Interior designer
• Project manager
• Collaboration with team members from conceptual design to final stages of the project
• Preparation of 2D plans (Autocad ) and 3D modelling (Autocad+ Sketchup)
Flexibility of workspace was the main concept for design. Office space was designed according to the company’s requirement.
Collaboration spaces, focus workstations, different spaces for team work and spaces for recharge of the employees and relaxation areas were all considers in the design of the space.
Different types of work zones gives the employee the freedom to choose where they want to work.
Various furniture for group activities, different size of meeting rooms and open meeting rooms.
Quiet zones towards the right side of the building, vibrate zones towards the left side and near the existing void were designed.
Vibrant zones: Reception, breakout, meeting spaces, game room lockers and wardrobe.
Collaboration zones: informal meeting rooms, brain storm space, collaboration space, work space and phone boots
Quiet zones, enclosed offices and work spaces.
Wooden joinery is created by a natural look of lyon ash. Reception desk is made of unilin carrara frosted white for the uniqueness of reception desk as the first point of view of the office space that is placed in front of the entrance. Other fabrics for furniture’s were selected according to the colour scheme.
Use of orange colour for the service areas that brings more life and at the same time matches with the brand identity of the company gives a perfect contrast with grey and wood used in joinery and chairs.
PET FELT dark green acoustic panels from quadrat were used to give a contrast and vibrant look to the orange floor.
All the material and furniture’s were tested in the place by client and had been pre-selected and ordered before meeting with our client in the office space.
Fabric samples, colour samples and material samples were shipped to our client to secure them with their choices.
Same colour of laminated oak wood was used for joinery and reception area and other wooden furniture in the office. Different acoustic fabrics for the breakout area to avoid noise and sound transition to other spaces were chosen.
Dark orange from Quadrat remix products were used and installed as an aquatic panel in the work zone.
Residential complex for Students and Bocconi university staff residence
Sustainable Building Technology Course+
Architectural Design
Politecnico di Milano / A.Y. 2019
Supervised by Arch. Filopo Pagliani, Roberto Francieri, Gabriele Masera and Matteo Softwares
• Autocad, Revit, Sketchup, Sefaira, 3Ds Max, Grasshopper, Naviswork, Ladybug, Photoshop, Illustrator
Main Roles
• Collaboration with team members from conceptual design to final stages of the project
• Preparation of 2D plans (Autocad + Revit) and 3D modelling (Revit + Sketchup)
• Post production using Photoshop
• BIM 4D modelling (Naviswork) Time Liner simulation
• Preparation of Management documents (BIM) LOD. EIR, PLQ, Grantt chart, Quantity schedules
• Energy analysis (Sefaira + Ladybug)
• Technological Detailing
• Structural and facade design
The majority of the world’s GHG emissions come from cities. Initiated by the C40 Cities Climate Leadership Group and made possible thanks to the support of Climate KIC, Reinventing Cities is a global competition that seeks to transform underutilized sites through sustainable and community-focused projects to drive decarbonised and resilient urban regeneration. Represented site by C40 competition had the aims to achieved as follow with design of 2500 m2 student residence for Bocconi university and 1500 m2 for staff residentials.
• Building energy efficiency and supply of clean energySustainable materials management and circular economy
• Resilience and adaption
• Green growth and smart Cities
• Biodiversity, urban revegetation and agriculture
Within this neighborhood the Milanese approach of considering a courtyard is highly employed.
Articulating S/V ratio and energy consumption regarding the changes. We started from a 0,45 ratio. Arriving to 0,58 we noticed an increase of 6% of the EUI.
To achieve a better solution for interaction, common spaces along side student rooms was designed.
To have more interaction among students to enjoy their everyday life, connecting spaces vertically and horizontally was introduced.
Serio residence offers to the residents the choices of privacy complemented with the connections. To promote a sense of belonging and community around the private court space, we designed communal activities. Shaded gardens are adopted within the private court. Seating are also oriented towards a central focal point to remind the occupants to interact with the residents even while they enjoy private time.
Thus the students and the Milanese families may meet, communicate and interact around the very object that sort to divide them. Now after the initial interaction over the canal residents are further granted the opportunity to meet on the canal.
CONSTRUCTION DRAWING: SECTION A-A - SCALE 1 : 50
VERTICAL CLOSURE 01
covering layer ventilated cavity
layer strengthening layer atmospheric effects seal layer insulation layer
layer insulation layer cavity insulating layer
support layer
steam seal layer covering layer
HORIZONTAL PARTITION 02
covering layer
support element
water seal layer
sloped layer
insulation layer
sliding-block layer
load-bearing layer
load-bearing element
acoustic insulation layer
covering layer
NOTES
Steel beam IPE 270
Steel plate welded on the main beam, 140 mm long, th. 3 mm
Wooden skirting board
Border steal beam: UPN 180
Steel L profile, 100 x 100 mm
Covering layer composed by glued fibercement panel
INCLINED CLOSURE 01
coated layer separation layer
support layer
insulation and ventilated layer
insulation layer supporting and coating layer
secondary support layer
insulation layer
water vapour barrier layer
supporting and coating layer
load bearing element
HORIZONTAL CLOSURE 02
filling gravel
filtering layer
water collection layer
water leakage layer
sloped layer
insulation panel
sliding-block layer
support layer
load-bearing layer
insulation layer
load-bearing element
support layer
acoustic insulation layer covering layer
NOTES
Steel profile that supports the water collection system
Copper water collection element
Supporting wooden element for the water collection, th. 2 cm
Steel L profile, 70 x 70 mm
Copper foil fixed by ‘‘clip’’
Tuff block 25 x 10 cm’
Wooden beam 22 x 40 cm
covering layer:
fiber-cement sheet, 60x60x2cm
ventilated cavity, th. 5cm
insulation layer:
double rigid stone wood panel, applied with synthetic resin sticker, density 70kg/m3, λ = 0.035 W/m2K, 100x60cm, th. 6+6cm (type Rockwool)
strengthening layer:
cement fiber-reinforced panel, 120x90cm, th. 1.25cm (type Aquapanel Kanuf)
thermostatic effects seal layer:
transpiration polyethylene-fiber membrane, th. 0.18cm (type Tyvek)
insulation layer:
single glass wood panel, 140x60cm, density 70kg/m3, = 0.038 W/ m2K, 100x60cm, th. 4cm (type Rockwool) support layer:
zinc-coated steel C-profile, 5x7cm, th. 0.06cm
insulation layer:
single rigid stone wood panel, applied with synthetic resin sticker, density 70kg/m3, λ = 0.035 W/m2K, 100x60cm th. 4cm (type Rockwool)
cavity, th. 3cm:
(in the view, plasterboard clamp that links the structures 22x20x1.25cm)
insulation layer:
single glass wood panel, 140x60cm, density 70kg/m3, = 0.038 W/ m2K, 100x60cm, th. 6cm (type Rockwool)
support layer:
zinc-coated steel C-profile, 5x7cm, th. 0.06cm
steam seal layer:
aluminum micro-sheet, th. 15 m
covering layer:
painted gypsum-covered double panel, 120x200cm, th. 1.25+1.25cm
HORIZONTAL PARTITION 01
layer
layer facilities integration layer
insulation
cladding: porcelain stoneware slab
ventilated cavity
insulation: double rigid stone wool panel
strengthening: cement fiber-cement panel
atmospheric effects seal layer
insulation: single glass wool panel
support: zinc-coated steel
C-profile
insulation layer: stone wool panel
cavity
insulating: single glass wool panel
support: zinc-coated steel
C-profile
steam seal: aluminium m crosheet
covering: painted gypsum-covered panels
NOTES
Steel pillar: HEB 220
Steel L profile 80 x 60 mm welded to tubular steel profile
HORIZONTAL PARTITION 01
covering: parquet
radiative heating with preshaped polystyrene panel facilities integration: perlite screed
clomping insulation: sbr rubber
load-bearing: corrugated sheet with reinforced concrete
IPE 270
support: double c-profiles structure
acoustic insulation: glass wool panel
covering: painted gypsum-co ered panels
VERTICAL CLOSURE 01
cladding: porcelain stoneware slab
ventilated cavity
insulation: double rigid stone wool panel
strengthening: cement fi er-cement panel
atmospheric effects seal layer
insulation: single glass wool panel
support: zinc-coated steel
C-profile
insulation layer: stone wool panel cavity
insulating: single glass wool panel
support: zinc-coated steel
C-profile
steam seal: aluminium m crosheet
covering: painted gypsum-co ered panels
NOTES
Steel beam IPE 270
Steel plate welded on the main beam, 140 mm long, th. 3 mm Wooden skirting board
To better understand the behavior of our building and the incidence of transparent elements, we first studied the south façade and after the north one. In order to understand the best window/floor ratio for our energetic performance we ran many simulations adding and modifying windows on the south façade, starting from a minimum value of 0,125 (given from the Italian law) and arriving to a 0,5 W/F ratio.
The best energetic result is reached with a W/F ratio of 0,125, U value of 0,6 W/m2K and g value of 0,45.
he results show that, in terms of EUI (Energy Use Intensity) the best result is obtained with the south windows (U=0,6 W/ m2K and g=0,45) and a W/F ratio of 0,125. Meanwhile, in terms of heating, the best result is obtained with a W/F ratio of 0,25 and the same thermal properties.
HORIZONTAL
VERTICAL
NOTES
Steel beam IPE 270
Steel plate welded on the main beam, 140 mm long, th. 3 mm
Steel tubular profile, 160 x 60 mm, filled with insulated material
Steel L profile welded on the tubular profile, 250 x 80 mm, th. 3 mm
1. Fix the U profile to the strenghtening layer ( Aquapanel Knauf) with screws.
2. Fix the omega profile to the U profile with screws. The distance between the substructurev depends on the dimension of the panel.
3. Fix the hooks on the omega profile with screws. The distance between the hooks depends on the dimension of the panel.
HORIZONTAL
VERTICAL CLOSURE
Steel
Steel
Steel
HORIZONTAL
4. Fix the panel on the hooks. The cavities in the upper and lower part of the panel allows the hook to sustain it without screws.
VERTICAL
The sliding shutter is made by MEG (abet laminati) which is a self supporting high pressure laminate(HPL) suitable for exteriors. Thikness of the frame= 50 mm measurement of the lamina inside =20x50x140mm
The panel will be used in order to improve the daylight and energetical comfort inside the bedroom. In particular, in winter, the panel can be closed and put on the side of the balcony, in order to maximise the solar gains.
Comparing our values we can state that our building is in CLASS A3
The final performance is furtherly improved if we consider the renewable energy production. EUI = 24,7 kWh/m2/year Annual energy cost = 5976 €.
Luxurious Residential Building Design
Professional Project
Tarh Omran construction Company / March 2016
Supervised by Arch. Gohari /Tehran-Iran
Softwares
• Autocad 2D and 3D, Revit, Photoshop, 3Ds Max
Main Roles
• Plan and Facade design regarding clients desire and budget
• Preparation of documents and plans for building permits
• Preparation of 2D plans (AutoCAD) and 3D modelling (AutoCAD 3D + Revit)
• Cost estimation and Material list preparation
• Collaborating with site manager for updating plans and facade based on changes in construction site
• Technical Detailing
• Weekly report of project progress to Lead Architect
• Checking for conflicts between structural drawings and architectural plans and facade and giving suggestions on how to solve them.
This project was a high-end residential apartment locating in north region of Tehran, c capital of Iran. An eight floor building containing a total of 24 residential flats containing all welfare facilities such as gym, pool, an extensive lobby and a hall for private occasions of residents.
The client’s intention was to build and design an eye-catching luxury building. Neoclassical style seemed like an ideal answer for design of a luxurious residential apartment.
23.8 ha of master plan and builing of center for creative design Dublin university future campus
Master of Science Thesis Project
Politecnico di Milano / A.Y. 2020
Supervised by Arch.Roberto Francieri, Angela Clucci / Belfield/ Dublin 4, Ireland
Softwares
• Autocad, Sketchup, Sefaira, Lumion, Grasshopper, Transys, Ladybug, Photoshop, Illustrator
Main Roles
• Collaboration with team members from conceptual design to final stages of the project
• Urban analysis, Masterplan and Landscape design (Autocad + Sketchup + Photoshop )
• Preparation of 2D plans (Autocad ) and 3D modelling ( Autocad 3D + Sketchup + Rhino/Grasshopper )
• Post production using Photoshop
• Energy analysis (Sefaira + Ladybug)
• Technological Detailing
• Structural and facade design
• Research for urban concept and synthesis map
University College Dublin - Future Campus was an International design competition managed by Malcolm Reading Consultants. University College Dublin (UCD) is Ireland’s Offering a strongly diverse mix of academic disciplines, UCD attract 30,000 students for over 120 countries annually. The project is in two parts:
1) An Entrance Precinct Masterplan, 2) Centre for Creative Design building.
The Entrance Precinct Masterplan covers an area of 23.8 ha, within which the University sees a potential to accommodate up to 335,000 sq m of new development. The first building to be delivered within the Entrance Precinct Masterplan is the 8,000 sq m Centre for Creative Design.
Design of external spaces varies according to the location and relation to the building. These spaces vary from open to close, private and social, simple and complex. Different types of activities such as open air amphitheater, spots for individuals to study and be relaxed, gathering spots for students of each faculty that has visual connection with other faculties and all the campus.
1. ENTRANCE PLAZA
2.OPEN AIR WORKSHOPS
3.MAIN LAKE
4.SHUTTLE BUS STOP
5.GATHERING PLAZA
6.IRISH GARDEN WALKWAY
7.OPEN AIR THEATER
8.COVERED WALKWAY
9.OPEN EXHIBITION 10.PARKING
The urban concept was shaped around two main ideas, one was the existing social hubs (lakes) and the other is old and historical buildings and landscapes in the campus.
A historical Irish garden which dates back to 18 century called secret garden and many more historical buildings. In this masterplan people will experience the past, feature and the present.
Considering main social cores(two waterbodies) and connecting these two with the entrance to make them visible and generate people flow.
Pushing the buildings together to make a neighborhood for students and draw them together not to push them away from each other, to feel the closeness, build up a social trust and to have a denser and happier space was the reason to connect all of the green spaces of each faculty together and make their social life alive and active.This way we can turn a place into space and make a location feel like home and make communities out of faculties that can built up families and feeling of trust and belonging among students.
Parameterization of Bridge connection
The site access routes change after the intervention of the masterplan. These are the main routes of access to our project area and pave way to the main building that connects city to the site and make a memorable vision for cars and pedestrians passing along the university.
STRUCTURAL DESIGN
SECONDARY COLUMN LOAD CALCULATIONS
PRIMARY COLUMN LOAD CALCULATIONS
SHEAR FORCE DIAGRAMS MOMENT DIAGRAMS
Typical floor Primary Beams Load Calculations. To begin the design of the structure, the variable and permanent loads are first calculated. They are defined as follows; Permanent loads (G) are constant during the service life of the building. The calculation consists of;
•Permanent loads (G1): self-weight of the structural elements
•Permanent loads (G2): self-weight of the non-structural elements
•Variable loads (Q) change over the duration of the building’s service life.
•Live loads: self-weight of the equipment or people present within the building
•Snow loads: self-weight of snow based on the specified region and applied to the external roofing element.
•Wind loads: pressure and suction values are calculated for both the longitudinal and transversal sides of the building
BENDING MOMENT DIAGRAMS
Photovoltaic modules - Dim. 1,0 x 1,5 m
Substructure: tubular steel sections system for PV panels - Dim. 50x20mm
Waterproof and insulating layer: rockwool sandwich panel with aluminum coating - λ: 0,04 W/mk : 50 kg/ m3 - Thic. 8 cm
Insulating layer: EPS panels - λ: 0,030 W/mK : 15 kg/m3 - Thic. 2x10 cm
Load bearing layer: galvanized corrugated steel sheet with reiforced concrete topping - Heigh. 50mm -
Concrete thic. 3 cm
Secondary structure: IPE 200 steel section
Primary structure: IPE 400 steel section
Substructure: suspended false ceiling system
Finishing and reverberation control layer: double gypsum board with rockwool insulation - Thic. 2x1.25 cm and 5 cm
Finishing layer: concrete pavement for veichles - : 300 kg/m3 - Thic. 3 cm
Levellig layer: medium density concrete screed - : 600 kg/m3 - Thic. 5 cm
Separation layer: polyethylene vapor barrier - Sd: 40 m - Thic. 0,22 mm
Insulating layer: EPS panels - λ: 0,030 W/mK : 15 kg/m3 - Thic. 2x10 cm
Load bearing layer: reiforced concrete topping with electrically welded mesh - Thic.10 cm
Ventilation layer: crawl space made by plastic modular formworks - Heigh. 30 cm
Levelling layer: lean mortar - : 100 kg/m3 - Thic. 5 cm
Drainage layer: gravel - Thic. 5 cm
taking into account the Annual Sun Exposure, rooms exposed to southeast may be affected by glare, as the ASE value may suggets.
On the north and east facades as we have diffused light and in order to filter light, we used vertical fins.
On the south facade to reduce the radiation alowing inside the building and to avoid the heat gains on the facade system, full facade casing with offset has been conavoid consideredsidered
Taking into consideration all the strategies we were able to reduce the consumption of the building from 117 kWh/m2/yera to 27 kWh/m2/year.
