價格：免費
更新日期：2019-06-17
檔案大小：6.8M
目前版本：17
版本需求：Android 8.0 以上版本
官方網站：https://axiom-lab.com
Email：info@axiom-lab.com
聯絡地址：Birkenweg 7 5505 Brunegg Switzerland
Many instant messengers already use encryption to secure message contents, but they can't hide important metadata such as your IP address and who you are communicating with!
Features:
- works without registration
- environment friendly, cause no service needed in background
- P2P over the whole internet
- rocksolid Encrypted by Tor
- send images
- produce no meta-data
- source code available on github
- no ads
- no tracking
- 100% anonymous
Support this project for more features:
get in touch with us!
We do not accept crypto currency as donation!!We want to save our environment! - you should do the same!
Every previous messenger has a security problem, because it is dependent on servers of third parties and "temporarily" stores the data there.
This is technically equivalent to a "man-in-the-middle" attack.
With AXIOM push, the smartphone itself becomes a server and host. Due to the simple address assignment of the TOR network, no intermediate storage by other servers is necessary.
To hide all your information, including your metadata, identity, and IP address, AXIOMpush uses onion routing (Tor) to send each message over several randomly selected proxy servers. Multiple layers of encryption are used to ensure that each proxy only knows it's immediate successor and predecessor, but not the entire message route.
AXIOMpush users are identified via 16 character checksums of their public keys. To connect with other users, send them an invitation with your ID, show them your QR code, or use your camera to scan theirs.
To create and transmit an onion-connection, the originator selects a set of nodes from a list provided by a "directory node". The chosen nodes are arranged into a path, called a "chain" or "circuit", through which the message will be transmitted. To preserve the anonymity of the sender, no node in the circuit is able to tell whether the node before it is the originator or another intermediary like itself. Likewise, no node in the circuit is able to tell how many other nodes are in the circuit and only the final node, the "exit node", is able to determine its own location in the chain.
Using asymmetric key cryptography, the originator obtains a public key from the directory node to send an encrypted message to the first ("entry") node, establishing a connection and a shared secret ("session key"). Using the established encrypted link to the entry node, the originator can then relay a message through the first node to a second node in the chain using encryption that only the second node, and not the first, can decrypt. When the second node receives the message, it establishes a connection with the first node. While this extends the encrypted link from the originator, the second node cannot determine whether the first node is the originator or just another node in the circuit. The originator can then send a message through the first and second nodes to a third node, encrypted such that only the third node is able to decrypt it. The third, as with the second, becomes linked to the originator but connects only with the second. This process can be repeated to build larger and larger chains, but is typically limited to preserve performance.
When the chain is complete, the originator can send data over the Internet anonymously. When the final recipient of the data sends data back, the intermediary nodes maintain the same link back to the originator, with data again layered, but in reverse such that the final node this time removes the first layer of encryption and the first node removes the last layer of encryption before sending the data, for example a web page, to the originator.
The source code can be reviewed at: https://github.com/skalski/AXIOMpush