Abstract: An adapter suitable for installation in a machine in place of a customer replaceable unit monitor having a first interface format is described herein. Upon installation of the adapter in the machine, the adapter enables data communication between the machine and a customer replaceable unit monitor having a second interface format that is different than the first interface format. The first and second interface formats may include one or more of: configuration of an electrical interface of the customer replaceable unit monitor, configuration of a mechanical interface of the customer replaceable unit monitor, and configuration of data input to and output from the customer replaceable unit monitor. The adapter may be attached to a module before the module is installed in the machine to simplify installation of the adapter.

Abstract: An interface antenna is positioned between a tag antenna associated with a tag and a reader antenna associated with a reader. The interface antenna receives an electromagnetic carrier signal transmitted by the reader antenna and causes an increase in intensity of the electromagnetic carrier signal at the location of the tag antenna, thereby increasing the distance over which the tag can communicate with the reader. Where the tag is attached to a packaged object, the interface antenna may be included in the package to allow wireless data communication between the tag and a reader external to the package. For example, the interface antenna may be attached to a label on the package. At least a portion of the interface antenna may be formed from a conductive ink applied to the label and/or the container. The object may be a module, also known as a customer replaceable unit (CRU), and the tag may be configured as a customer replaceable unit monitor (CRUM).

Abstract: A method and system receives test requirements and test settings in order to design a test. An identifier is assigned to the test that was designed and the test is stored in a database using the identifier to identify the test. In addition, the test is printed on at least one sheet or form and a wireless read/write device is programmed with the identifier assigned to the test. The wireless read/write device is attached to the sheet on which the test was printed. Thus, the sheet and the wireless read/write device can be provided to a test operator to allow the test operator to wirelessly read the identifier from the wireless read/write device. Then, the test operator can access the test from the database based on the identifier read from the wireless read/write device. The test instructions (comprising the test requirements and test settings) are provided from the database to the operator to perform the test and potentially produce a physical test output.

Abstract: Embodiments herein place a product and a programmable device within a shipping package, seal the shipping package, and program the programmable device by transmitting wireless signals to the programmable device, without opening the shipping package. Then, after the device is programmed, the shipping package can be shipped to the end user (consumer). The programmable device is adapted to be connected to the product after the product and the programmable device are removed from the shipping package by the end user to enable different features of the product, depending upon the wireless signals that were transmitted to the programmable device.

Abstract: An authentication apparatus includes a reading or recording medium equipped with an authentication tag, and a reading and recording drive that includes a transmitter and a coupler chip, wherein the authentication tag and the transmitter are capable of communicating with each other when the reading medium or the recording medium is coupled to the reading and recording drive. An authentication method includes providing a reading medium or a recording medium with an authentication tag, providing a reading and/or recording drive with a transmitter and a communication interface wherein the authentication tag and the transmitter are capable of communicating with each other when the reading medium or recording medium is coupled to the reading and/or recording drive, and authenticating the reading medium or recording medium via a communication between the authentication tag and the transmitter.

Abstract: An RFID bridge antenna is positioned between a tag antenna associated with a tag and a reader antenna associated with a reader. The bridge includes at least two RF antenna elements spaced apart from one another and coupled together by an electrical conductor. The first RF antenna element is located proximate to the tag antenna and the second RF antenna element is located proximate to the reader antenna. An electromagnetic carrier signal transmitted by the reader antenna is received by one of the RF antenna element and retransmitted to the tag antenna by the other RF antenna element, increasing the distance over which the tag can communicate with the reader. Where the tag is attached to a packaged object, the RFID bridge antenna may be included in the package to allow wireless data communication between the tag and a reader. The reader may also be located external to the package.

Abstract: A memory device authentication method that includes providing a memory device in a host device, and providing both an encryption algorithm, triggering the encryption algorithm during writing of data in the memory device, wherein the encryption algorithm allters the written data and generates a device altered data, then storing the written data in the memory device, running the encryption algorithm in the host device on the data written in the memory device and generating a host altered data, the verifying authenticity of the memory device by comparing the device altered data and the host alerted data. An authentication device and associated system that includes a host device that comprises a unit, a first encryption algorithm that is stored in the host device, and a second encryption algorithm, identical to the first encryption algorithm, that is permanently stored in a memory of the unit.

Abstract: By providing a secure EEPROM (Electrically Erasable Programmable Read Only Memory) device or other non-volatile memory (NVM) in an arrangement of a master key system operation key (SOK) plus any subsequently installed SOK to control the configurable machine option attributes, various problems associated with machine option configuration and updates may be accommodated. At the initial install of either SOK type the identity of the machine is written to the NVM, i.e. the machine serial number. This is performed during the initial machine power up or reboot sequence. If the SOK type is a subsequently installed SOK, the option code(s) from the subsequently installed SOK are written to the master key SOK. As part of the power on or reboot routine the machine will check to ensure no tampering has taken place and that the machine identity and the NVM serial number location data match.

Abstract: By providing a secure EEPROM (Electrically Erasable Programmable Read Only Memory) device or other non-volatile memory (NVM) as a system operation key (SOK) to control the configurable machine option attributes, various problems associated with machine option configuration and updates may be accommodated. At initial SOK install the identity of the machine is written to the NVM, i.e. the machine serial number. This is performed during the initial machine power up or reboot sequence. As part of the power on or reboot routine the machine will check to ensure no tampering has taken place and that the machine identity and the NVM serial number location data match. A new swapped in SOK can be installed so long as the NVM serial number location has not been previously written to with a conflicting identification number. The machine will then write the serial number to the new SOK thereby protecting it.

Abstract: A coupler board includes an antenna that generates an electromagnetic field for wireless communication of data with multiple memory devices. The memory devices have data associated with operation of the machine stored therein, and may be configured as customer replaceable unit monitors (CRUMs) or system operation keys (SOKs). The memory devices may be in the form of radio frequency identification (RFID) tags. The electromagnetic field may have a dual-lobe radiation pattern to communicate with memory devices on either side of the coupler board. In one embodiment, the machine is a printing apparatus.

Abstract: A product identification method and associated system may include providing an identification element that corresponds to a consumable product, the identification element at least one of being portable by a user and being readable by a scanner; and at least one of marking information related to the consumable product on the identification element and storing information related to the consumable product in the identification element. Also, a product identification device may include an identification element, and information related to consumable product which is at least one of marked on the identification element and stored in the identification element.

Abstract: An RFID bridge antenna is positioned between a tag antenna associated with a tag and a reader antenna associated with a reader. The bridge includes at least two RF antenna elements spaced apart from one another and coupled together by an electrical conductor. The first RF antenna element is located proximate to the tag antenna and the second RF antenna element is located proximate to the reader antenna. An electromagnetic carrier signal transmitted by the reader antenna is received by one of the RF antenna element and retransmitted to the tag antenna by the other RF antenna element, increasing the distance over which the tag can communicate with the reader. Where the tag is attached to a packaged object, the RFID bridge antenna may be included in the package to allow wireless data communication between the tag and a reader. The reader may also be located external to the package.

Abstract: An RFID bridge antenna is positioned between a tag antenna associated with a tag and a reader antenna associated with a reader. The bridge includes at least two RF antenna elements spaced apart from one another and coupled together by an electrical conductor. The first RF antenna element is located proximate to the tag antenna and the second RF antenna element is located proximate to the reader antenna. An electromagnetic carrier signal transmitted by the reader antenna is received by one of the RF antenna element and retransmitted to the tag antenna by the other RF antenna element, increasing the distance over which the tag can communicate with the reader. Where the tag is attached to a packaged object, the RFID bridge antenna may be included in the package to allow wireless data communication between the tag and a reader. The reader may also be located external to the package.

Abstract: A machine, such as a phase change or solid ink printing apparatus, comprises at least one ink stick and a coupler external to the ink stick. The ink stick has an electronically-readable memory device attached thereto, with the memory device having stored therein electronic data associated with the ink stick. The coupler is configured to read the electronic data from the memory device. The data in the memory device may include identification data, anti-arbitrage variables, usage data, maximum use values, and performance data related to the ink stick, and the coupler and memory device may employ various means for communicating this data. Also, communication between the coupler and memory device facilitates a method for determining a quantity of marking material in the machine.

Abstract: An interface antenna is positioned between a tag antenna associated with a tag and a reader antenna associated with a reader. The interface antenna receives an electromagnetic carrier signal transmitted by the reader antenna and causes an increase in intensity of the electromagnetic carrier signal at the location of the tag antenna, thereby increasing the distance over which the tag can communicate with the reader. Where the tag is attached to a packaged object, the interface antenna may be included in the package to allow wireless data communication between the tag and a reader external to the package. For example, the interface antenna may be attached to a label on the package. At least a portion of the interface antenna may be formed from a conductive ink applied to the label and/or the container. The object may be a module, also known as a customer replaceable unit (CRU), and the tag may be configured as a customer replaceable unit monitor (CRUM).

Abstract: A machine, such as a phase change or solid ink printing apparatus, has at least one multiple supply unit in the form of an ink stick disposed therein. The ink stick has an electronically-readable memory device associated therewith, and the memory device has stored therein electronic data related to the ink stick and readable by the machine. The memory device may be attached to the ink stick and removed before the ink stick is used for printing in the machine. In another aspect, the memory device is attached to a container for the ink stick. The container may be a cartridge for use in the machine, or a container for packaging the ink stick. The machine may include a coupler configured to read electronic data from the memory device while the memory device is positioned external to the printing apparatus, thus allowing the machine to verify the suitability of the ink stick before it is installed in the machine.

Abstract: A data retrieval method and system are provided that include providing, in a device, a replaceable unit, storing usage data of the device in a database based on information stored in a CRUM used in the replaceable unit, providing access to the database to a user, and providing the usage data to the user. The user data is based on the device performing an operation and the information stored in the CRUM reflecting at least one data point reflecting the performed operation.

Abstract: Processing a module packaged within a container involves securely affixing a tag comprising a tag memory and a tag communication element to the container. While the module is enclosed in the container, information pertaining to the module is selectively stored in the tag memory for later readout and processing. A container for enclosing a module includes an electronic tag having a tag memory and a tag communication element. The tag communication element is adapted to receive information from a source, and the tag memory stores that information. While the module is packaged in the container, either first module information or second module information is stored in the tag memory. The module information pertains to the subsequent use of the module. The electronic tag is embedded in the container material, or securely affixed to the container. The electronic tag may span a container opening so that the tag is damaged upon opening the container, providing security against improper re-use.

Abstract: By providing a secure EEPROM (Electrically Erasable Programmable Read Only Memory) device or other non-volatile memory (NVM) with a wireless interface as a system operation key (SOK) to control the configurable machine option attributes, various problems associated with machine option configuration and updates may be accommodated. At initial SOK install the identity of the machine is written to the NVM, i.e. the machine serial number. This is performed during the initial machine power up or reboot sequence. As part of the power on or reboot routine the machine will check via the wireless interface to ensure no tampering has taken place and that the machine identity and the NVM serial number location data match. A new swapped in SOK can be installed so long as the NVM serial number location has not been previously written to with a conflicting identification number. The machine will then write the serial number to the new SOK thereby protecting it.

Abstract: An adapter suitable for installation in a machine in place of a customer replaceable unit monitor having a first interface format is described herein. Upon installation of the adapter in the machine, the adapter enables data communication between the machine and a customer replaceable unit monitor having a second interface format that is different than the first interface format. The first and second interface formats may include one or more of: configuration of an electrical interface of the customer replaceable unit monitor, configuration of a mechanical interface of the customer replaceable unit monitor, and configuration of data input to and output from the customer replaceable unit monitor. The adapter may be attached to a module before the module is installed in the machine to simplify installation of the adapter.