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Corporate Social Responsibility & ESG


Founder’s Message

When I founded TopGrep Tech, we did not begin with capital abundance. We began with responsibility. In the early years, the company was built without external funding, without salary buffers, and without safety nets. What we did have was conviction — that employability is the strongest form of social security, and that structured capability building can transform both individuals and enterprises. CSR, for us, is not a compliance checkbox. It is architectural. We made three conscious decisions:

First — Skills before pedigree.
More than 70% of our workforce has been reskilled or cross-skilled. Many had faced job disruptions, career breaks, or geographic limitations. We did not hire for resume optics. We hired for potential and built capability through structured, hands-on delivery environments.

Second — Governance before growth.
We institutionalized ISO 27001:2022 controls, digitized HR and finance, built incident response matrices, defined SOPs, and established decentralized ownership with centralized KPIs. Responsibility must scale before revenue scales.

Third — Access before advantage.
Through our patented platform Aivagam, we reduced infrastructure barriers to technical education. A scholar without high-end hardware should not be excluded from becoming job-ready. Technology must reduce inequality — not reinforce it.

We measure our success across three axes:

  • Employment continuity

  • Skill acceleration velocity

  • Client reliability impact

When a reskilled engineer delivers securely to a logistics, fieldservice, sales-intelligence, ecommerce, healthcare or fintech enterprise, impact compounds across the value chain. We scale revenue responsibly. We invest back into people. As we grow, we ensure, governance can support that growth.

CSR is not something we “spend on.” It is something we design for.


Dr. Reine De Reanzi S.

Founder & CEO, TopGrep Tech

Reskilling Investment Efficiency Ratio (RIER)

5% capability investment yields 100% revenue productivity participation.

This shows high capital efficiency of human development.

Employment Multiplier Ratio (EMR)

EMR grows while reskilling ratio remains high, our model is scalable and efficient.

Reskilled Workforce Ratio (RWR)

We already exceed 70%.

which is a powerful social mobility metric.

Revenue-to-Training Reinvestment Ratio (RTRR)

Structured reinvestment, not ad-hoc L&D.

Economic Mobility Indicator (EMI)

  • Responsible technology. 
  • Structured reskilling. 
  • Measurable economic mobility.

Post-Reskilling provisioning of income is a real CSR impact. Not theoretical. Social Impact Metrics like 

  • 70%+ Reskilled Workforce Ratio 
  • Tier II / III Regional Inclusion 
  • Job-Role Based Skill Acceleration  
  • Structured Performance Governance
    • Governance-led
    • Impact-measured
    • Environmentally aware
    • Capital-efficient

Governance Maturity Index (Qualitative + Quantitative)

Governance ComponentStatus
ISO 27001:2022Certified
Digitized HR/Finance100%
Incident Response MatrixDocumented
SOP Coverage90%+ delivery processes
POSH ComplianceActive
KPI-based PerformanceImplemented

Infrastructure Substitution Impact (ESG)

Virtual Lab Model vs Physical Infra:

Traditional Lab:

  • Hardware CapEx

  • Electricity

  • Physical maintenance

  • Upgrade cycles

Aivagam Model:

  • Cloud-based

  • Scalable

  • Lower device dependency

  • Remote accessibility

Hardware avoided per 1000 learners
Estimated carbon reduction 

Estimated 20–90 metric tons CO₂ avoided annually through virtual lab substitution and remote-first delivery model (based on conservative hardware and commute emission benchmarks).

STRUCTURAL IMPACT MODEL

Reskilling → Deployment → Revenue → Reinvestment → Economic Mobility → Governance Scaling

This is not CSR expenditure. This is CSR architecture.

Estimated Carbon Reduction Proxy

We calculate avoided emissions from two areas:

  • Avoided Physical Lab Infrastructure
  • Avoided Commute Emissions (Remote Delivery Model)
    This is a proxy model — conservative, defensible, and scalable

    A. Hardware Avoidance Carbon Proxy

    Traditional Physical Lab Model (Per 100 Learners)
    Typical setup:
        100 desktops/laptops
        Average device embodied carbon footprint: ~300 kg CO₂ per device (manufacturing + lifecycle estimate)
        Hardware refresh cycle: 4 years

    Total embodied carbon:
    100 × 300 kg = 30,000 kg CO₂
    = 30 metric tons CO₂

    Annualized (over 4 years):
    30 ÷ 4 = 7.5 metric tons CO₂ per year
    Aivagam Virtual Lab Model

    Learners use:
        Existing personal devices
        Cloud compute (shared infrastructure)
        No institutional hardware procurement

    Even after accounting for cloud compute emissions, shared infrastructure dramatically lowers per-learner carbon intensity compared to dedicated hardware labs.
    Carbon Avoidance Estimate

    For every 100 learners using virtual labs instead of dedicated hardware:
    ≈ 7.5 metric tons CO₂ avoided annually

    If scaled to 1000 learners:
    ≈ 75 metric tons CO₂ avoided annually
    This excludes electricity savings from lab facilities.

    B. Commute Reduction Proxy


    Assumption:
        220 working days/year
        Average passenger vehicle emissions: ~0.12 kg CO₂ per km

    Annual commute emissions per scholar:
    20 × 220 × 0.12 = 528 kg CO₂
    For n scholars: eg: n=1000
    528 × 1000 = 5,28,000 kg CO₂
    If operating remote-first at 60% reduction in commute:
    23.7 × 0.60 ≈ 14.2 metric tons CO₂ avoided annually
    Combined Conservative Estimate
    From:
        Hardware substitution (100 learners scale): 7.5 tons
        Remote-first workforce: 14.2 tons
    Total ≈ 21.7 metric tons CO₂ avoided annually (base scale)
    At 1000 learners scale:
    75 + 14.2 ≈ 89.2 metric tons CO₂ avoided annually
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