Airfare Prediction Data Scraping: Build Fare Models From Live Data

By Author: Travel Scrape
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“Should I book now or wait?” It is the question every traveller asks, and the one every fare-prediction product promises to answer. To answer it well, a model needs to learn how fares move as departure approaches, route by route, airline by airline, season by season. That learning depends entirely on the data behind it.
In October 2026 a travel-tech startup asked Travel Data Scrape for “historical airfare data for the last two to three years, for airfare trend analysis and a fare-prediction model,” covering major domestic Indian routes and international routes to the Gulf, Southeast Asia, the UK and Europe, and North America. It is a common request, and it raises an important truth: detailed historical fare data of the kind prediction models need usually does not exist unless someone collected it at the time. This guide explains why, and how Airfare Prediction Data Scraping builds the right dataset from today forward.
Why historical fare data is rare

Airline and travel websites show the fares available right now for future flights. They do not publish what a fare was three months ago for a flight that ...
... has already departed. Once a flight leaves, the sequence of prices it showed during its booking window is gone unless it was recorded.
Some aggregated historical sources exist, such as average fares paid published by government statistics agencies, or industry datasets of tickets sold. These are useful for broad trends but usually lack what a prediction model needs: the price quoted for a specific flight on each day before departure.
Travel Data Scrape does not sell past airfare data that was never collected. We help clients start collecting the right data now, so their model's history grows every day.
What a fare-prediction model actually needs
A prediction model learns the shape of the “fare curve”: how the lowest available fare for a given flight or route changes as the departure date approaches. To learn that shape, it needs repeated observations of the same future flights over time.
Flight Price Prediction Data Requirements
- Repeated observations of the same flight
Why it matters: To see how price changes with days before departure
- Many routes and airlines
Why it matters: To generalise across markets
- Consistent search parameters
Why it matters: Same passenger count, cabin, trip type
- Departure dates across seasons
Why it matters: To learn seasonality and holiday effects
- Observation timestamp
Why it matters: To measure lead time precisely
- Flight-level detail
Why it matters: Flight number, departure time, stops, fare family
Designing the collection grid
The heart of airfare prediction data scraping is the collection grid: which routes, which departure dates and how often each is checked.
Routes
Start with the routes your users search most. For an India-focused product, that might include the busiest domestic trunk routes plus key international routes to the Gulf, Southeast Asia, the UK and North America.
Departure dates
For each route, track a rolling window of departure dates, for example the next 120 to 180 days.
Observation frequency
Not every date needs daily checks. A common pattern:
Flight Price Observation Frequency
- 0 to 14 days
Observation frequency: Daily (or twice daily)
- 15 to 60 days
Observation frequency: Daily
- 61 to 120 days
Observation frequency: Every 2 to 3 days
- 121 to 180 days
Observation frequency: Weekly
This captures the fast changes close to departure while keeping volume manageable.
Search parameters
Use fixed parameters: one adult, economy, one-way (and optionally return), with consistent origin and destination airport codes. Add business class for routes where it matters.
Sample record
The record below is illustrative.
{
"route": "DEL-BOM",
"departure_date": "2026-12-19",
"observed_at": "2026-10-07T05:00:00+05:30",
"days_before_departure": 73,
"cabin": "economy",
"trip_type": "one_way",
"passengers": 1,
"flight_number": "XX 123",
"airline": "Example Air",
"departure_time": "07:10",
"stops": 0,
"fare_family": "Saver",
"fare_inr": 5480,
"lowest_fare_on_route_inr": 5210,
"seats_left_message": null,
"source": "airline_site"
}
How long until the dataset is useful?
A common question is how soon a model can be trained. A rough guide:
Flight Price Data Collection Periods
- 1 to 2 months
What the data supports: Short-horizon models (0 to 30 days) for frequent routes
- 3 to 6 months
What the data supports: Full booking-window curves; early seasonal effects
- 12 months
What the data supports: One full cycle of seasons and holidays
- 24 months or more
What the data supports: Year-over-year comparison and robust holiday modelling
Teams often launch a simple “fare trend” feature after three months and improve the model as data grows. Combining scraped fare curves with public aggregated statistics can help model long-term trends while flight-level history builds.
Feature ideas for fare models
Flight Fare Model Features and Sources
- Days before departure
Source: Observation timestamp vs departure date
- Day of week of departure
Source: Departure date
- Departure time band
Source: Flight time
- Holiday and festival proximity
Source: Calendar data (Diwali, Christmas, school holidays)
- Number of airlines and flights on the route
Source: Collected schedule data
- Recent price movement
Source: Change over the last 3, 7 and 14 days
- Fare family
Source: Saver, standard, flexible
- Seats-left messages
Source: Where displayed
What a fare curve looks like
The table below shows how the lowest economy fare for one illustrative domestic flight might move over its booking window.
Flight Fare Changes by Days Before Departure
- 120 days
Lowest fare (INR): 4,890
Change vs previous observation: —
- 90 days
Lowest fare (INR): 4,890
Change vs previous observation: 0%
- 60 days
Lowest fare (INR): 5,210
Change vs previous observation: +6.5%
- 45 days
Lowest fare (INR): 5,480
Change vs previous observation: +5.2%
- 30 days
Lowest fare (INR): 5,480
Change vs previous observation: 0%
- 21 days
Lowest fare (INR): 6,120
Change vs previous observation: +11.7%
- 14 days
Lowest fare (INR): 6,950
Change vs previous observation: +13.6%
- 7 days
Lowest fare (INR): 8,400
Change vs previous observation: +20.9%
- 3 days
Lowest fare (INR): 9,850
Change vs previous observation: +17.3%
- 1 day
Lowest fare (INR): 11,200
Change vs previous observation: +13.7%
All figures are illustrative.
Fare curves are rarely smooth. They move in steps as cheaper fare buckets sell out, and they sometimes fall when airlines release seats or respond to competitors. A model needs many such curves, across routes and seasons, to learn when a fall is likely and when prices will only rise.
Festivals and holidays in Indian and international markets
For India-focused fare prediction, festival periods dominate the calendar. Diwali, Durga Puja, Chhath, Holi, Christmas and New Year, summer school holidays and long weekends all produce sharp demand peaks on specific routes. International routes add Gulf peaks around Eid and the summer return season, and UK and North American peaks around school holidays and Christmas. Collecting data across at least one full year captures these patterns; until then, the model should be cautious on dates near major festivals.
Seasonal Flight Fare Patterns in India
- Diwali and Chhath
Routes most affected: Metros to Bihar, UP, Bengal
Typical pattern: Fares rise early and stay high
- Summer holidays
Routes most affected: Metros to hill stations and Goa; India to Gulf and UK
Typical pattern: Long, gradual rise
- Eid
Routes most affected: India–Gulf
Typical pattern: Sharp peaks around travel dates
- Christmas and New Year
Routes most affected: Goa, international leisure routes
Typical pattern: Late peaks, few late drops
Multi-source collection
No single source shows every fare. Airline websites show their own fares and fare families; online travel agencies show combinations across airlines; metasearch sites show what many sellers offer. A robust dataset combines several sources, keeps a source field on every row and deduplicates identical itineraries. Travel Data Scrape has written separately about multi-source airfare data aggregation and flight-level fare tracking, which are the building blocks for this kind of dataset.
Quality checks
Flight Data Quality Checks
- Coverage per route and date
Purpose: Ensures no gaps in the grid
- Failed or empty searches
Purpose: Distinguishes “sold out” from “not collected”
- Outlier fares
Purpose: Flags currency errors or parsing issues
- Schedule changes
Purpose: Detects new or cancelled flights
- Duplicate itineraries
Purpose: Prevents double counting across sources
From data to product: what users see
A good fare-prediction feature does not show users a model score. It shows a clear recommendation and the reason:

Prediction output
What the user sees
High chance of rise in next 7 days
“Book now: fares on this route usually rise from here”
Likely to stay flat
“No rush: fares have been stable; we'll alert you if they change”
Chance of a drop
“Consider waiting: similar flights often drop 2 to 3 weeks before departure”
Uncertain (festival dates, limited data)
“Hard to predict: festival travel dates are volatile”

Flight Fare Prediction Outputs
- High chance of rise in next 7 days
What the user sees: “Book now: fares on this route usually rise from here”
- Likely to stay flat
What the user sees: “No rush: fares have been stable; we'll alert you if they change”
- Chance of a drop
What the user sees: “Consider waiting: similar flights often drop 2 to 3 weeks before departure”
- Uncertain (festival dates, limited data)
What the user sees: “Hard to predict: festival travel dates are volatile”
Honest uncertainty builds trust. A product that is right most of the time and clear about when it is unsure keeps users coming back.
Estimating dataset size and cost
Flight Fare Data Collection Inputs
- Routes
Example: 80
- Departure dates tracked per route
Example: 150
- Average observations per date over its window
Example: 60
- Flights returned per search (average)
Example: 12
- Fare rows per year
Example: About 8.6 million
Figures are illustrative. Dataset size grows with routes × dates × observations × flights per search, so route selection and observation frequency are the main cost levers.
Common mistakes

Buying “historical” data without checking how it was collected. Ask whether it contains repeated observations of the same flights before departure.
Changing search parameters mid-stream. Switching from one adult to two, or from one-way to return, breaks comparability.
Collecting only the lowest fare. Fare families and departure times explain much of the variation; keep them.
Ignoring gaps. A missed day of collection leaves a hole in the curve. Monitor coverage daily.
Forgetting time zones. Store observation time and departure time with explicit time zones.
Frequently asked questions
Can you supply two or three years of past airfare data?
Not where it was never collected. Travel Data Scrape starts a forward collection that builds history from day one, and can point you to public aggregated statistics for long-term context.
How quickly can collection start?
Typically within one to two weeks for an agreed route list.
Which routes and markets are supported?
Domestic and international routes in India, the Gulf, Southeast Asia, Europe and North America, subject to source feasibility.
How is the data delivered?
Daily files (CSV or Parquet), a data warehouse push, or an API for live fares.
Key takeaways
Fare-prediction models need repeated observations of the same flights over their booking window.
That data rarely exists historically; it must be collected forward.
Airfare prediction data scraping depends on a well-designed grid of routes, dates and observation frequency.
Consistent parameters, multi-source coverage and daily quality checks make the dataset reliable.
Start building your fare history with Travel Data Scrape
Travel Data Scrape delivers airfare prediction data scraping and live fare feeds for fare-prediction startups, OTAs and travel data teams. Share your route list and markets, and we will design a collection grid and start your dataset within days.
source : https://www.travelscrape.com/airfare-prediction-data-scraping.php
original : https://www.travelscrape.com

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