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SciSpace Research Agent for Smarter Research | Step-by-Step Guide | SciSpace Webinar thumbnail

SciSpace Research Agent for Smarter Research | Step-by-Step Guide | SciSpace Webinar

SciSpace·
6 min read

Based on SciSpace's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

The agent is designed to unify multi-tool research workflows into one planned, multi-step execution flow with transparent intermediate artifacts.

Briefing

SciSpace’s research agent is built to stitch together the scattered, multi-tool workflows researchers use today—turning literature review, peer review, manuscript/grant writing, data analysis, and even website creation into one guided, multi-step process with transparent intermediate outputs. The core pitch is that generic “agent modes” tend to be broad and unreliable for scholarly work, while this agent is tailored for research tasks, with research-specific workflows, tool access, and a context-aware plan that can run for long stretches without constant supervision.

The product starts from a practical pain point: researchers already assemble pipelines across SciSpace tools—copying outputs from literature review into other systems, pasting into different tools to generate charts, then moving again into word processors, spreadsheets, and slide decks. That manual hopping is time-consuming and hard to standardize. The agent is designed to collapse those steps into a single place, so users can communicate freely with one system that understands what they started with, what it produced, and what remains.

Under the hood, the agent turns a detailed user prompt into a multi-step plan, then executes it iteratively using “100+ tools and databases” plus built-in research workflows such as systematic literature review, peer review, and converting papers to code. It can also pause to ask the user for clarification when needed. A key UX feature is transparency: the interface shows a to-do checklist, live activity for the current step, and a growing list of files the agent generates on the fly—often including downloaded PDFs, intermediate CSVs, and final deliverables.

The webinar demonstrates several use cases. In a grant-writing example, the agent searches for relevant funding opportunities (including government grants), selects a top match, pulls supporting research via academic and web sources, and drafts a proposal in LaTeX—then self-corrects when LaTeX compilation fails by installing missing packages and simplifying the document to get to a working PDF. In a peer review workflow, the agent parses an uploaded ML-focused PDF, searches for related work on SciSpace, produces novelty/impact analysis, generates three distinct reviews from different perspectives (technical, application impact, and critical), and then compiles a meta review with prioritized issues.

For systematic literature review, the agent follows a Prisma-style protocol: defining research questions and inclusion/exclusion criteria, searching multiple databases (including Google Scholar, arXiv, PubMed, and SciSpace), screening titles/abstracts and full text, removing duplicates, extracting structured data, and compiling a report with sections and references. The presenter emphasizes that the agent can do much of the heavy lifting, but researchers remain responsible for oversight—checking steps, correcting omissions, and verifying outputs.

Beyond text-heavy research, the agent can run code against user-provided spreadsheets to generate visualizations and analysis, producing charts and then incorporating them into a LaTeX report. It can also build and deploy interactive websites by browsing a Google Scholar profile, extracting publication/citation metadata, and generating HTML pages with filters and sections—then iterating based on user feedback.

Pricing is handled through a credit system tied to task complexity and consumption, with systematic reviews typically costing “a few hundred credits,” while smaller tasks cost less. The webinar also addresses compliance concerns: plagiarism tools like Turnitin are framed as unlikely to flag rephrased AI-assisted writing, while AI-detection tools may still identify AI-generated text—so the recommended approach is to use agent outputs as drafts and rewrite in one’s own words.

Overall, the agent’s value proposition is speed with structure: long-running, research-specific automation that produces auditable intermediate artifacts, while keeping humans in the loop for correctness, originality, and final editorial control.

Cornell Notes

SciSpace’s research agent aims to replace fragmented research pipelines by planning and executing multi-step scholarly tasks in one place. It uses research-specific workflows (systematic literature review, peer review, grant/manuscript drafting, data analysis/visualizations, and even website creation) and can run long tasks while showing a to-do plan, live progress, and intermediate files. Demonstrations show LaTeX self-correction after compilation failures, Prisma-style review protocols, and multi-perspective peer reviews with a meta review. The credit-based system ties cost to task complexity, and the workflow still requires researcher oversight to verify steps, avoid errors, and manage AI-detection risk by rewriting drafts.

What makes this agent different from general-purpose “agent modes” for research?

It’s built around research-specific workflows and tool access rather than broad, generic answering. The agent is described as using 100+ research-oriented tools and databases plus dedicated workflows like systematic literature review, peer review, and converting papers to code. The prompts and UX are also tuned for research tasks, and the interface emphasizes transparency (plan checklist, live step updates, and generated files) so researchers can audit what happened at each stage.

How does the agent handle long, complex tasks like systematic literature reviews?

It converts a detailed query into a thorough multi-step plan, then executes iteratively. In the Prisma-style demo, it defines research questions and inclusion/exclusion criteria, searches multiple databases (including Google Scholar, arXiv, PubMed, and SciSpace), screens titles/abstracts and full text, removes duplicates, extracts structured data, and compiles a report with sections and references. The presenter also notes users can stop and redirect the agent midstream if the plan or search direction looks wrong.

What does “transparency” look like in practice during execution?

The agent produces a to-do checklist and a live activity feed that shows the current step and communicates outputs as it goes. It also writes intermediate artifacts to the workspace—such as downloaded PDFs, CSVs, and LaTeX files—so users can inspect progress rather than waiting for a single final answer.

How does the grant-writing demo demonstrate reliability and error recovery?

After drafting a LaTeX proposal, the agent compiles it to PDF. When compilation fails (e.g., due to a missing package), it self-corrects by installing the needed package and/or simplifying the document, then retries until a final PDF is produced. The final output includes both the proposal content and a summary of key components (e.g., market analysis, technical approach, budget rationale) plus the list of generated files.

What oversight responsibilities remain for researchers using the agent?

The presenter repeatedly frames the agent as a research assistant/intern-like helper rather than an authority. Researchers should verify that steps were performed correctly, check for missing sections or incomplete figures, confirm bibliographic accuracy, and rewrite outputs in their own words to reduce AI-detection risk. The agent can generate strong drafts, but correctness and editorial judgment still belong to the user.

How does the agent support non-text research outputs like charts and websites?

For data analysis, it can run Python code against user-provided Excel/CSV files, generate multiple visualizations (e.g., performance charts, heat maps, query-transformation analyses), and then incorporate them into a LaTeX report. For websites, it can browse a Google Scholar profile, extract publication and citation metadata, generate interactive HTML pages with filters (e.g., by research area), and deploy the site—then iterate based on user instructions (like swapping images or fixing missing values).

Review Questions

  1. Which specific research workflows and tool access does the agent use to move beyond generic “agent mode” behavior?
  2. In a Prisma-style systematic literature review, what are the major stages the agent follows, and where can a user intervene?
  3. What strategies does the webinar recommend for managing AI-detection concerns when using agent-generated drafts?

Key Points

  1. 1

    The agent is designed to unify multi-tool research workflows into one planned, multi-step execution flow with transparent intermediate artifacts.

  2. 2

    Research-specific workflows (systematic literature review, peer review, grant/manuscript drafting, code/paper conversion) are prioritized over generic question answering.

  3. 3

    The interface shows a to-do plan, live step updates, and generated files (including PDFs, CSVs, and LaTeX), enabling auditability during long runs.

  4. 4

    Demonstrations show self-correction in LaTeX compilation and multi-perspective peer review generation with a meta review.

  5. 5

    Systematic literature review follows a Prisma-style structure: define criteria, search multiple databases, screen, deduplicate, extract structured data, and compile a report.

  6. 6

    Credit-based pricing ties cost to task complexity and consumption, with systematic reviews typically costing a few hundred credits.

  7. 7

    AI-detection risk remains; using outputs as drafts and rewriting in one’s own words is recommended even if plagiarism tools may not flag rephrased text.

Highlights

The agent drafts grant proposals in LaTeX and can recover from compilation failures by installing missing packages and simplifying the document until a working PDF is produced.
Peer review is generated as three distinct reviews (technical, application impact, critical perspective) plus a combined meta review that prioritizes issues.
Systematic literature review is executed in a Prisma-style pipeline with inclusion/exclusion criteria, multi-database searching, screening, deduplication, and structured extraction.
The agent can generate and deploy interactive websites by browsing a Google Scholar profile, extracting publication/citation metadata, and adding filters by research area.

Mentioned

  • Deepak
  • Rohan
  • Rentar
  • LLM
  • API
  • NSF
  • Prisma
  • AI
  • CSV
  • PDF
  • ML
  • IIT