Abstract: In some aspects, the techniques described herein relate to a quantum method for solving a second-order cone program (SOCP) instance, the method including: defining a Newton system for the SOCP instance by constructing matrix G and vector h based on the SOCP instance; preconditioning matrix G and vector h via row normalization to reduce a condition number of matrix G; iteratively determining u until a predetermined iteration condition is met, the iterations including: causing a quantum computing system to apply matrix G and vector h to a quantum linear system solver (QLSS) to generate a quantum state; causing the quantum computing system to perform quantum state tomography on the quantum state; and updating a value of u based on a current value of u and the output of the quantum state tomography; and determining a solution to the SOCP instance based on the updated value of u.

Abstract: A method and system for destroying information stored on a data storage device located onboard a vehicle in order to prevent unfriendly forces from obtaining the information is described. The method and system are initiated when the operator of the vehicle activates a triggering mechanism. The information may be destroyed by physically damaging the data storage device on which the information is stored or by releasing a software virus into the device on which the sensitive information is stored. A software virus may also be transmitted to a computer of an unfriendly force attempting to access the sensitive information.

Abstract: A system may include an integrated circuit and a coating at least partially encapsulating the integrated circuit. The coating may include an electrically insulating material at least partially encapsulating an analog circuit. The integrated circuit may be electrically connected to the analog circuit. Additionally, the integrated circuit may be configured to generate an analog electrical signal, transmit the analog electrical signal through the analog circuit to generate a modified analog electrical signal, receive the modified analog electrical signal, and in response to determining that the modified analog electrical signal is sufficiently similar to an expected analog electrical signal, use the modified analog electrical signal as an input to an algorithm performed by the integrated circuit.

Abstract: A package includes a chassis, a plurality of components arranged within the chassis, a plurality of RFID devices, and at least one processing device. The RFID devices are arranged at a plurality of locations to form an array configured to authenticate compliance of the actual configuration of the package with a model configuration. The processing device is configured to communicate with the RFID devices, determine if the actual configuration of the package is in compliance with the model configuration based on communications with the RFID devices, and set an operational mode of one or more of the components of the package in response to determining if the actual configuration of the package is in compliance with the model configuration.

Abstract: An integrated circuit (IC) package with a fibrous interface is provided. The package includes a substrate, a bond coat and a top coat. The substrate is configured to contain IC components and connections. The bond coat layer is configured to encapsulate the IC components. The top coat layer has at least a portion embedded in the bond coat layer. Moreover, the top coat layer includes a fibrous interface configured to provide security and strengthen the bond coat layer.

Abstract: An integrated circuit (IC) package with a fibrous interface is provided. The package includes a substrate, a bond coat and a top coat. The substrate is configured to contain IC components and connections. The bond coat layer is configured to encapsulate the IC components. The top coat layer has at least a portion embedded in the bond coat layer. Moreover, the top coat layer includes a fibrous interface configured to provide security and strengthen the bond coat layer.

Abstract: A system may include an integrated circuit and a coating at least partially encapsulating the integrated circuit. The coating may include an electrically insulating material at least partially encapsulating an analog circuit. The integrated circuit may be electrically connected to the analog circuit. Additionally, the integrated circuit may be configured to generate an analog electrical signal, transmit the analog electrical signal through the analog circuit to generate a modified analog electrical signal, receive the modified analog electrical signal, and in response to determining that the modified analog electrical signal is sufficiently similar to an expected analog electrical signal, use the modified analog electrical signal as an input to an algorithm performed by the integrated circuit.

Abstract: An integrated circuit (IC) package with a fibrous interface is provided. The package includes a substrate, a bond coat and a top coat. The substrate is configured to contain IC components and connections. The bond coat layer is configured to encapsulate the IC components. The top coat layer has at least a portion embedded in the bond coat layer. Moreover, the top coat layer includes a fibrous interface configured to provide security and strengthen the bond coat layer.

Abstract: A package includes a chassis, a plurality of components arranged within the chassis, a plurality of RFID devices, and at least one processing device. The RFID devices are arranged at a plurality of locations to form an array configured to authenticate compliance of the actual configuration of the package with a model configuration. The processing device is configured to communicate with the RFID devices, determine if the actual configuration of the package is in compliance with the model configuration based on communications with the RFID devices, and set an operational mode of one or more of the components of the package in response to determining if the actual configuration of the package is in compliance with the model configuration.

Abstract: A method of recognizing a tamper event is provided. The method uses an optical medium having a unique signature, and transmits at least one light wave into the optical medium. The light wave is altered by the unique signature of the optical medium and at least one property of the light wave is measured. Access to at least a portion of a system is conditioned based on the at least one property of the light wave.

Abstract: A secure insert comprises a shell including a lid and a container configured to receive and encase one or more circuit cards, wherein the shell is further configured to be inserted into and engage a card slot area of a chassis. A bridge connector is disposed inside the shell and configured to couple the one or more circuit cards to a chassis connector. A tamper sensor is disposed inside the shell and configured to detect unauthorized tamper events.

Abstract: In some examples, a system includes a data storage device that stores data and a monitor device that monitors a physical domain in which the data storage device is located and conditions access to data stored by the data storage device based on communication between the monitor device and the data storage device. In some examples, the system is configured to impede access to the data when at least one of operation the monitor device fails or the monitor device is attacked. Additionally, in some examples, the monitor device is configured to restrict access to the data when the monitor device is engaged and an attacker attempts to access the data storage device directly.

Abstract: A system may include a first connector housing, a magnetic data storage device mechanically coupled to the first connector housing, a second connector housing configured to be mechanically engaged with the first connector housing, and a permanent magnet mechanically coupled to the second cavity. In some examples, relative motion between the magnetic data storage device and the permanent magnetic causes data stored on the magnetic data storage device to be modified. In one example, the system further includes a printed board assembly mechanically coupled to one of the first or second connector housings and a master interconnect board mechanically coupled to the other one of the first or connector housings. Modification to the data stored on the magnetic data storage device may indicate relative movement between the first and second connector housings.

Abstract: A tamper-indicating assembly includes a container formed by a plurality of walls and a door mechanically coupled to at least one of the walls via a hinge. At least one cable extends at least partially through the hinge between the door and the at least one wall. The cable transmits a signal, and the assembly can identify potential tamper events related to opening and closing of the door based on changes in properties of the transmitted signal. Techniques for forming the assembly are also described.

Abstract: A system may include a first connector housing, a magnetic data storage device mechanically coupled to the first connector housing, a second connector housing configured to be mechanically engaged with the first connector housing, and a permanent magnet mechanically coupled to the second cavity. In some examples, relative motion between the magnetic data storage device and the permanent magnetic causes data stored on the magnetic data storage device to be modified. In one example, the system further includes a printed board assembly mechanically coupled to one of the first or second connector housings and a master interconnect board mechanically coupled to the other one of the first or connector housings. Modification to the data stored on the magnetic data storage device may indicate relative movement between the first and second connector housings.

Abstract: In one embodiment, a system comprises application-specific functionality, anti-tamper functionality to detect an unauthorized attempt to interact with the application-specific functionality; and a hardware key interface to communicatively couple the system to a hardware key. An attempt to interact with the application-specific functionality is considered unauthorized if an authorized hardware key is not communicatively coupled to the hardware key interface when the attempt occurs.

Abstract: An apparatus to indicate unauthorized manipulation of at least one protected device enclosed in a housing is provided. The apparatus includes a structure attached to a first portion of the housing and a token switch attached to a second portion of the housing. The token switch is operably positioned with reference to the structure. The token switch includes a plunger, and a register programmed with a value. The register is communicatively coupled with a processor in a circuit. The circuit is communicatively coupled to drive the device. The structure, the token switch, and the circuit are internal to the housing when the housing is in a closed position. The plunger and the structure are positioned to generate a current when the housing is opened. The programmed value in the register is changed by the generated current and the processor takes an action responsive to the change in the programmed value.

Abstract: In one embodiment, a system comprises JTAG functionality that implements at least a portion of a JTAG protocol. The JTAG functionality supports a test data in (TDI) line, a test data out (TDO) line, a test rest (TR) line, a test mode state (TMS) line, and a test clock (TCLK) line. The system further comprises a debug interface to communicatively couple the system to a debug device external to the system. The debug interface comprises a transmit (TX) line, receive (RX) line, and a clock (CLK) line. The system transmits data output by the JTAG functionality on the TDI input on the RX line of the debug interface and receives data from the debug device on the TX line of the debug interface and provides the received data to the JTAG functionality on the TDO line, TR line and the TMS line.

Abstract: A method and system for destroying information stored on a data storage device located onboard a vehicle in order to prevent unfriendly forces from obtaining the information is described. The method and system are initiated when the operator of the vehicle activates a triggering mechanism. The information may be destroyed by physically damaging the data storage device on which the information is stored or by releasing a software virus into the device on which the sensitive information is stored. A software virus may also be transmitted to a computer of an unfriendly force attempting to access the sensitive information.

Abstract: A secure connector is provided. The secure connector comprises a casing; a tamper sensor disposed inside the casing and configured to detect unauthorized tamper events; and one or more conductors configured to carry signals, the one or more conductors passing through the tamper sensor.