Mock sample for your project: Gravity API

Space has a hostile radiation environment that increases the risk of cancers in humans and malfunctions in spacecraft electronics. The types of space radiation of primary concern are:
Galactic Cosmic Rays from outside our solar system generated by
supernovae and other phenomena;
Solar Energetic Particles produced by the Sun during intense and
sporadic bursts of activity; and
Trapped Radiation: energetic particles confined by Earth's magnetic
field, usually comprising an inner belt of mostly high energy protons
and an outer belt dominated by lower energy electrons and plasma.
Understanding the space radiation environment for a particular mission profile is becoming increasingly important. Commercial off-the-shelf electronic components that aren't resilient to space radiation are now prevalent. Longer duration missions to cislunar space, Mars, and beyond are placing astronauts at greater risk of radiation exposure.
API requests must contain a key "API-Key" in the header (see code samples). Obtain a key from here.
Help us improve the quality of our web APIs by completing our 2 minute survey here.
Amentum Pty Ltd is not responsible nor liable for any loss or damage of any sort incurred as a result of using the API.
Copyright Amentum Pty Ltd 2021.

Our atmosphere protects us from a hostile space radiation environment comprising high energy particles of solar and intergalactic origin. Solar radiation is significant during unpredictable and short lived solar flares and coronal mass ejections (CMEs); however, galactic cosmic radiation (GCR) is omnipresent. The GCR intensity varies with latitude, longitude, and time due to effects of solar activity on the interplanetary magnetic field, as well as the Earth's magnetic field. Space radiation collides with gases in the atmosphere, leading to a complex shower of high energy radiation, the intensity and composition of which varies spatially and temporally. Excessive exposure to radiation can damage DNA and lead to long-term health effects such as an increased risk of cancer. Resulting radiation levels at commercial aircraft altitudes are greater than at sea level due. Aircrew are classified as radiation workers in some countries; however, planning to limit their exposure, and monitoring, is generally lacking. Both real-time measurements and predictive models of radiation in the atmosphere are important to mitigate the radiation risk crew.
We host a RESTful API to models of cosmic ray induced ionising radiation in the atmosphere. The PARMA or CARI7 endpoints can be used to calculate Effective Dose or Ambient Dose Equivalent at a point.
The Route Dose API calculates the same quantities along a great circle route between two airports using CARI7.
API requests must contain a key "API-Key" in the header (see code samples). Obtain a key from here.
Help us improve the quality of our web APIs by completing our 2 minute survey here.
Amentum Pty Ltd is not responsible nor liable for any loss or damage of any sort incurred as a result of using the API.
Copyright Amentum Pty Ltd 2021.

Instantly access empirical models of atmospheric density and composition that are recommended by the Committee on Space Research (COSPAR) for satellite drag calculations.
API requests must contain a key "API-Key" in the header (see code samples). Obtain a key from here.
Help us improve the quality of our web APIs by completing our 2 minute survey here.
Amentum Pty Ltd is not responsible nor liable for any loss or damage of any sort incurred as a result of using the API.
Copyright Amentum Pty Ltd 2021.

Furkot provides Rest API to access user trip data.
Using Furkot API an application can list user trips and display stops for a specific trip.
Furkot API uses OAuth2 protocol to authorize applications to access data on behalf of users.

Our atmosphere protects us from a hostile space radiation environment comprising high energy particles of solar and intergalactic origin. Solar radiation is significant during unpredictable and short lived solar flares and coronal mass ejections (CMEs); however, galactic cosmic radiation (GCR) is omnipresent. The GCR intensity varies with latitude, longitude, and time due to effects of solar activity on the interplanetary magnetic field, as well as the Earth's magnetic field. Space radiation collides with gases in the atmosphere, leading to a complex shower of high energy radiation, the intensity and composition of which varies spatially and temporally. Excessive exposure to radiation can damage DNA and lead to long-term health effects such as an increased risk of cancer. Resulting radiation levels at commercial aircraft altitudes are greater than at sea level due. Aircrew are classified as radiation workers in some countries; however, planning to limit their exposure, and monitoring, is generally lacking. Both real-time measurements and predictive models of radiation in the atmosphere are important to mitigate the radiation risk crew.
We host a RESTful API to models of cosmic ray induced ionising radiation in the atmosphere. The PARMA or CARI7 endpoints can be used to calculate Effective Dose or Ambient Dose Equivalent at a point.
The Route Dose API calculates the same quantities along a great circle route between two airports using CARI7.
API requests must contain a key "API-Key" in the header (see code samples). Obtain a key from here.
Help us improve the quality of our web APIs by completing our 2 minute survey here.
Amentum Pty Ltd is not responsible nor liable for any loss or damage of any sort incurred as a result of using the API.
Copyright Amentum Pty Ltd 2021.

The general-purpose API

IP2Proxy allows instant detection of anonymous proxy, VPN, TOR exit nodes, search engine robots (SES), data center ranges (PX2-PX10), residential proxies (PX10) and VPN provider name (PX11) by IP address. It also returns the threat type of the proxy (PX9 or higher). Visit https://www.ip2location.com/web-service/ip2proxy for further information.

API to view feed information and download feeds from TransitFeeds.com

With the GraphHopper Directions API you can integrate A-to-B route planning, turn-by-turn navigation,
route optimization, isochrone calculations and other tools in your application.
The GraphHopper Directions API consists of the following RESTful web services:
Routing API,
Route Optimization API,
Isochrone API,
Map Matching API,
Matrix API,
Geocoding API and
Cluster API.
Explore our APIs
Get started
Sign up for GraphHopper
Create an API key
Each API part has its own documentation. Jump to the desired API part and learn about the API through the given examples and tutorials.
In addition, for each API there are specific sample requests that you can send via Insomnia or Postman to see what the requests and responses look like.
Insomnia
To explore our APIs with Insomnia, follow these steps:
Open Insomnia and Import our workspace.
Specify your API key in your workspace: Manage Environments -> "api_key": your API key
Start exploring
Insomnia
Postman
To explore our APIs with Postman, follow these steps:
Import our request collections as well as our environment file.
Specify your API key in your environment: "api_key": your API key
Start exploring
Postman
API Client Libraries
To speed up development and make coding easier, we offer the following client libraries:
JavaScript client - try the live examples
Others like C#, Ruby, PHP, Python, ... automatically created for the Route Optimization API
Bandwidth reduction
If you create your own client, make sure it supports http/2 and gzipped responses for best speed.
If you use the Matrix, the Route Optimization API or the Cluster API and want to solve large problems, we recommend you to reduce bandwidth
by compressing your POST request
and specifying the header as follows: Content-Encoding: gzip. This will also avoid the HTTP 413 error "Request Entity Too Large".
Contact Us
If you have problems or questions, please read the following information:
FAQ
Public forum
Contact us
GraphHopper Status Page
To stay informed about the latest developments, you can
follow us on twitter,
read our blog,
watch our documentation repository,
sign up for our newsletter or
our forum.
Select the channel you like the most.
Map Data and Routing Profiles
Currently, our main data source is OpenStreetMap. We also integrated other network data providers.
This chapter gives an overview about the options you have.
OpenStreetMap
Geographical Coverage
OpenStreetMap covers the whole world. If you want to see for yourself if we can provide data suitable for your region,
please visit GraphHopper Maps.
You can edit and modify OpenStreetMap data if you find that important information is missing, e.g. a weight limit for a bridge.
Here is a beginner's guide that shows how to add data. If you have edited data, we usually consider your data after 1 week at the latest.
Supported Vehicle Profiles
The Routing, Matrix and Route Optimization APIs support the following vehicle profiles:
Name | Description | Restrictions | Icon
-----------|:----------------------|:--------------------------|:---------------------------------------------------------
car | Car mode | car access | car image
small_truck| Small truck like a Mercedes Sprinter, Ford Transit or Iveco Daily | height=2.7m, width=2+0.4m, length=5.5m, weight=2080+1400 kg | small truck image
truck | Truck like a MAN or Mercedes-Benz Actros | height=3.7m, width=2.6+0.5m, length=12m, weight=13000 + 13000 kg, hgv=yes, 3 Axes | truck image
scooter | Moped mode | Fast inner city, often used for food delivery, is able to ignore certain bollards, maximum speed of roughly 50km/h | scooter image
foot | Pedestrian or walking without dangerous SAC-scales | foot access | foot image
hike | Pedestrian or walking with priority for more beautiful hiking tours and potentially a bit longer than foot. Walking duration is influenced by elevation differences. | foot access | hike image
bike | Trekking bike avoiding hills | bike access | bike image
mtb | Mountainbike | bike access | Mountainbike image
racingbike| Bike preferring roads | bike access | racingbike image
Please note:
all motor vehicles (car, smalltruck, truck and scooter) support turn restrictions via turncosts=true
the free package supports only the vehicle profiles car, bike or foot
up to 2 different vehicle profiles can be used in a single optimization request. The number of vehicles is unaffected and depends on your subscription.
we offer custom vehicle profiles with different properties, different speed profiles or different access options. To find out more about custom profiles, please contact us.
a sophisticated motorcycle profile is available up on request. It is powered by the Kurviger Routing API and favors curves and slopes while avoiding cities and highways.
TomTom
If you want to include traffic, you can purchase the TomTom Add-on.
This Add-on only uses TomTom's road network and historical traffic information.
Live traffic is not yet considered. If you are interested to learn how we consider traffic information, we recommend that you read this article.
Please note the following:
Currently we only offer this for our Route Optimization API.
In addition to our terms, you need to accept TomTom's End User License Aggreement.
We do not use TomTom's web services. We only use their data with our software.
Contact us for more details.
Geographical Coverage
We offer
Europe including Russia
North, Central and South America
Saudi Arabia
United Arab Emirates
South Africa
Australia
Supported Vehicle Profiles
Name | Description | Restrictions | Icon
-----------|:----------------------|:--------------------------|:---------------------------------------------------------
car | Car mode | car access | car image
small_truck| Small truck like a Mercedes Sprinter, Ford Transit or Iveco Daily | height=2.7m, width=2+0.4m, length=5.5m, weight=2080+1400 kg | small truck image

GeoDataSource™ Web Service is a REST API enable user to lookup for a city by using latitude and longitude coordinate. It will return the result in either JSON or XML containing the information of country, region, city, latitude and longitude. Visit https://www.geodatasource.com/web-service for further information.

Open Source GPS Tracking Platform

The TrapStreet API finds trap streets in Google Maps, Bing Maps and OpenStreetMap data.

Welcome to the Daymet Single Pixel Extraction Tool API. You can use this API to download daily surface data within the Daymet database in a csv or json format for a single point. This API allows users to query a single geographic point by latitude and longitude in decimal degrees. A routine is executed that translates the (lon, lat) coordinates into projected Daymet (x,y) Lambert Conformal Coordinates. These coordinates are used to access the Daymet database of daily interpolated surface weather variables. Daily data from the nearest 1 km x 1 km Daymet grid cell are extracted from the database.
If you would like to learn how to automate the download of multiple locations for the Daymet Single Pixel Extraction Tool, click here.

The API ecotaco allows you to connect, create an account,
manage your credit cards and order rides.
Authentication
Ecotaco API use a system of application key and authentification token.
Application key :
The application key is generated by Ecota.co and unique to an application.
Before accessing EcoTa.co APIs, you need to register your application. Please supply the following information to [email protected]:
Application name
Company (if appropriate)
Contact name, phone and address
Contact email
Is this a web application, a desktop application, or an application running on a device?
Short description of your application
It must be passed on request : "accounts -> login", "accounts -> facebook login" and "accounts -> register" .
Authentification token :
The authentification token is retrieved at login or register of an user.
It must be passed in request for authenticate action in Authorization HTTP header.
Example :
Authorization: Token token=e55887022c1aca4c86abcc49e85ceb8a0c855d2af4d9fac75c08040a583dcde4
Language
On some of our resources, we filter the content displayed based on the Accept-Language header.
If the language is not defined or if we don't use the language defined in this header, we automatically use French as the default language.
EcoTa.co currently support two languages: English, French. ("en" and "fr")
Encoding
All requests and answers on EcoTa.co are in UTF-8.

Instantly access empirical models of atmospheric density and composition that are recommended by the Committee on Space Research (COSPAR) for satellite drag calculations.
API requests must contain a key "API-Key" in the header (see code samples). Obtain a key from here.
Help us improve the quality of our web APIs by completing our 2 minute survey here.
Amentum Pty Ltd is not responsible nor liable for any loss or damage of any sort incurred as a result of using the API.
Copyright Amentum Pty Ltd 2021.