Abstract: Method for verifying data generated by an electronic device included in equipment, the electronic device including a computing unit, a one-time programmable memory and a volatile memory, the equipment including a rewritable non-volatile memory and a communication bus enabling the electronic device to store data in the rewritable non-volatile memory. The method includes: creating a secured channel by encryption between the equipment and a server; obtaining an authentication key from the server; loading data and a message authentication code from the rewritable non-volatile memory to the volatile memory, the message authentication code obtained by the electronic device from the authentication key and said data prior to the storage of said data and message authentication code in the rewritable non-volatile memory, the electronic device not having kept the authentication key following the obtaining of the message authentication code; verifying said data using the secret key and the message authentication code.

Abstract: A tester for integrated circuits on a silicon wafer includes an input/output connection for testing an integrated circuit. The tester comprises circuitry arranged for transferring a first data frame to the integrated circuit via the input/output connection, the first data frame including a time reference for the data included in the data frame, a field for validating the time reference and a data field including at least one test command and for receiving a second data frame via the input/output connection, the data in the second data frame received having a duration that is a multiple of the time reference.

Abstract: Method for verifying data generated by an electronic device included in equipment, the electronic device including a computing unit, a one-time programmable memory and a volatile memory, the equipment including a rewritable non-volatile memory and a communication bus enabling the electronic device to store data in the rewritable non-volatile memory. The method includes: creating a secured channel by encryption between the equipment and a server; obtaining an authentication key from the server; loading data and a message authentication code from the rewritable non-volatile memory to the volatile memory, the message authentication code obtained by the electronic device from the authentication key and said data prior to the storage of said data and message authentication code in the rewritable non-volatile memory, the electronic device not having kept the authentication key following the obtaining of the message authentication code; verifying said data using the secret key and the message authentication code.

Abstract: The invention concerns an electronic module (2) for a contactless smart card or dual contact and contactless smart card comprising at least a first antenna (3a), a second antenna (3b), a third antenna (3c) and a microelectronic chip (1), characterized in that: said microelectronic chip comprises a microprocessor, at least a first contact (P1), a second contact (P2), a third contact (P3), a fourth contact (P4), a first tuning capacitor (C1) connected between the first contact (P1) and the third contact (P3), a second capacitor (C2) connected between the second contact (P2) and the fourth contact (P4), said first and third contacts (P1, P3) being connected to the inputs/outputs of the microprocessor and being configured to transmit to said microprocessor a radio-frequency communication signal exchanged through the antennas, said first antenna (3a) is connected between the first contact (P1) and the third contact (P3) and is configured to be brought into resonance by said first capacitor (C1), said second ant

Abstract: A tester for integrated circuits on a silicon wafer may include an input/output connection for testing an integrated circuit and circuitry causing the tester to perform: transferring a data frame to the integrated circuit via the input/output connection, the data frame including a time reference for the data included in the data frame, a field for validating the time reference and a data field including at least one integrated-circuit test command; and receiving a data frame via the input/output connection, the data in the data frame received having a duration that is a multiple of the time reference.

Abstract: The invention relates to a method for managing the endurance of a data storage system provided with a set of sectors endowed with a guaranteed native endurance capacity (G), comprising the steps consisting in: —partitioning said data storage system into a plurality of work sectors, and into a plurality of replacement sectors able to form an endurance reservoir, certain of the work sectors being intended to be replaced by replacement sectors when said work sectors are expended after a certain number of programming and/or erasure cycles; —defining an address management area making it possible to retrieve the location of the replacement sectors assigned to expended work sectors; —determining, sector by sector, whether a current work sector is physically expended, and executing a step of replacing this work sector by a replacement sector, only when said current work sector is declared physically expended.

Abstract: Each of a plurality of serially-connected data transmission apparatuses comprises a first shift register, a fault-detecting circuit and a second shift register. The second shift register is configured to receive a second serial input signal and generate an output signal according to a clock signal. The fault-detecting circuit is configured to select one of the outputs of the second shift register and a first serial input signal based on the fault-detecting result. The first shift register is configured to receive the output of the fault-detecting circuit and generate an output according to the clock signal. The second serial input signal is equal to the first serial input signal of at least one preceding stage, and the first serial input signal is equal to the output serial signal of the preceding stage. One purpose of the present invention is to maintain continuous transmission of the serial data when a failure of the serially-connected data transmission apparatus occurs.

Abstract: A method for driving a plurality of LEDs comprises the steps of: driving the plurality of LEDs according to a series of display signals; synchronously detecting the plurality of LEDs in a display mode for obtaining fault information; and serially outputting the fault information.

Abstract: The present invention relates to a light emitting diode (LED) driving system and a circuit thereof. The LED driving circuit is configured to control a direct voltage converter configured to generate a regulated output voltage to an input terminal of an LED array. The LED array has a plurality of LED sets. The LED driving circuit includes a plurality of current sources, a comparison circuit and a current setup circuit. The plurality of current sources are connected to a plurality of output terminals of the LED array, and are configured to provide a current flowing through the plurality of LED sets. The comparison circuit is connected to a plurality of output terminals of the LED array, and is configured to generate an analog or digital feedback signal representing a status of the supply voltage for the LED array. The current setup circuit is configured to set up the initial current value of the current sources.

Abstract: A lighting apparatus receives a regulated AC line voltage as an input voltage and comprises a light emitting diode array and a driving circuit. The light emitting diode array is composed of at least one light emitting diode set connected in parallel. The driving circuit has a plurality of outputs corresponding to the light emitting diode sets, and each output has a predetermined value for controlling the brightness of the light emitting diode set. Each light emitting diode set is conducted automatically and in sequence for a fixed time interval based on the output of the driving circuit and the amplitude of the regulated AC line voltage, and is turned off based on the predetermined signal of the driving circuit.

Abstract: Each of a plurality of serially-connected data transmission apparatuses comprises a first shift register, a fault-detecting circuit and a second shift register. The second shift register is configured to receive a second serial input signal and generate an output signal according to a clock signal. The fault-detecting circuit is configured to select one of the outputs of the second shift register and a first serial input signal based on the fault-detecting result. The first shift register is configured to receive the output of the fault-detecting circuit and generate an output according to the clock signal. The second serial input signal is equal to the first serial input signal of at least one preceding stage, and the first serial input signal is equal to the output serial signal of the preceding stage. One purpose of the present invention is to maintain continuous transmission of the serial data when a failure of the serially-connected data transmission apparatus occurs.

Abstract: An electronic device module comprises a carrier and first and second device regions. The first device region comprises a plurality of serially-connected devices deposited on the carrier, and the second device region is adjacent to the first device region and comprises a plurality of serially-connected devices. The voltage potential of the plurality of the serially-connected devices in the first device region is substantially the same as that of the plurality of the serially-connected devices in the second device region whereby damage due to short circuit of the adjacent plurality of serially-connected devices is avoided.

Abstract: A light emitting device of the backlight module comprises a carrier, an electrical contact, a light emitting diode (LED) driving circuit, and a plurality of LEDs. The carrier comprises a surface, and the electrical contact is electrically connected to a voltage source for providing a voltage potential substantially equal to that of the voltage source. The LED driving circuit comprises at least one driving component electrically connected to the electrical contact, and the plurality of LEDs electrically connected between the electrical contact and the LED driving circuit. The electrical contact, the LED driving circuit, and the plurality of LEDs are all positioned on the surface of the carrier.

Abstract: The present invention relates to a communicational environment establishing apparatus to be connected to a mobile phone with integrated interfacing information built therein and a method for establishing an optimized communicational environment, when coupled to the mobile phone, by applying built-in integrated interfacing information, which is set variously according to mobile phones and their manufacturers; recognizing the manufacturer, the model name, the operating/communicational environments and the version number of a mobile phone; and thus optimizing the connection with a mobile phone.

Abstract: A method for driving a plurality of LEDs comprises the steps of: driving the plurality of LEDs according to a series of display signals; synchronously detecting the plurality of LEDs in a display mode for obtaining fault information; and serially outputting the fault information.