Mechanism for securing a digital lock from unauthorized use
AssigneeAxtuator Oy
InventorMika Pukari
Life of this patent
Estimating the term…
Abstract
The invention provides a digital lock including at least two magnets. One magnet is a semi-hard magnet and the other magnet is a hard magnet. The hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder thereby the magnets acting as a blocking pin, and the mechanical and/or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder.
Claims43
A digital lock, comprising:
- a semi-hard magnet;
- and
- a hard magnet, wherein:
- the hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder, and
- a first blocking pin is configured to block the lock in the event of a mechanical attack, and a second blocking pin is configured to block the lock in the event of magnetic attack.
A digital lock, comprising:
- a semi-hard magnet;
- and
- a hard magnet, wherein:
- the hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder, and
- the semi-hard magnet is replaced by iron and the blocking pin is resettable by dismantling the lock.
A digital lock, comprising:
- a hall sensor;
- a semi-hard magnet;
- and
- a hard magnet, wherein:
- the hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder, and
- the hall sensor is configured to do any of the following:
- to sense the attachment or non-attachment of the hard magnet to the semi-hard magnet, to generate an alarm signal or audit trail record, or to drive the blocking pin to locked state.
A digital lock, comprising:
- a semi-hard magnet;
- and
- a hard magnet, wherein:
- the hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder, and
- there is a hold gap (GH) in between an Iron (Fe) block and the hard magnet in the digital lock, but not in a notch in a lock body or in an exterior of the digital lock, or wherein there is a thinner hold gap than (GH) at the notch or in the exterior of the digital lock.
A digital lock, comprising:
- a semi-hard magnet;
- and
- a hard magnet, wherein:
- the hard magnet is configured to move to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack is configured to move the hard magnet to seal the digital lock from the intruder, and
- a body of the digital lock comprises a first axle and a second axle and a user interface connected to the first axle, and wherein the semi-hard magnet and the hard magnet are inside the first axle.
A method for controlling a digital lock, the method comprising:
- providing at least two magnets, wherein a first magnet is a semi-hard magnet and a second magnet is a hard magnet, and wherein:
- the hard magnet moves to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack moves the hard magnet to seal the digital lock from the intruder, and
- the digital lock comprises two blocking pins, a first blocking pin for blocking the lock in the event of a mechanical attack, and a second blocking pin for blocking the lock in the event of magnetic attack.
A method for controlling a digital lock, the method comprising:
- providing at least two magnets, wherein a first magnet is a semi-hard magnet and a second magnet is a hard magnet, and wherein:
- the hard magnet moves to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack moves the hard magnet to seal the digital lock from the intruder, and
- the semi-hard magnet is replaced by iron and the blocking pin is resettable by dismantling the lock.
A method for controlling a digital lock, the method comprising:
- providing at least two magnets, wherein a first magnet is a semi-hard magnet and a second magnet is a hard magnet, and wherein:
- the hard magnet moves to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack moves the hard magnet to seal the digital lock from the intruder, and
- the digital lock comprises a hall sensor to do any of the following:
- to sense the attachment or non-attachment of the hard magnet to the semi-hard magnet, to generate an alarm signal or audit trail record, or to drive the blocking pin to locked state.
A method for controlling a digital lock, the method comprising:
- providing at least two magnets, wherein a first magnet is a semi-hard magnet and a second magnet is a hard magnet, and wherein:
- the hard magnet moves to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack moves the hard magnet to seal the digital lock from the intruder, and
- there is a hold gap (GH) in between an Iron (Fe) block and the hard magnet in the digital lock, but not in a notch in a lock body or in an exterior of the digital lock, or there is a thinner hold gap than (GH) at the notch or in the exterior of the digital lock.
A method for controlling a digital lock, the method comprising:
- providing at least two magnets, wherein a first magnet is a semi-hard magnet and a second magnet is a hard magnet, and wherein:
- the hard magnet moves to close the digital lock in the event of malicious attack, blocking the intruder by the magnets acting as a blocking pin,
- at least one of a mechanical or electromagnetic energy of the attack moves the hard magnet to seal the digital lock from the intruder, and
- a body of the digital lock comprises a first axle and a second axle and a user interface connected to the first axle, and wherein the semi-hard magnet and the hard magnet are inside the first axle.
A software program product configured to control operation of a digital lock comprising:
- a semi-hard magnet, and
- a hard magnet, wherein the hard magnet is configured to move to close the digital lock in the event of a malicious attack;
- the software program product comprising a processing module configured to operate the digital lock, the processing module comprising:
- an input module configured to receive an input from a user interface,
- an authentication module configured to authenticate the input received by the user interface;
- a database to store identification information of one or more users;
- and
- an output module configured to block an intruder in the event of the malicious attack, by the magnets acting as a blocking pin, and wherein at least one of a mechanical or electromagnetic energy of the malicious attack is configured to move the hard magnet to seal the digital lock from the intruder.
Dependencies are inferred from the claim text.