Abstract: According to some embodiments, a tester tests one or more DUTs by utilizing one or more respective reference devices. The tester comprises one or more test sites and one or more test circuits operatively coupled to each of the test sites. Each test site is configured to: hold a reference device and a DUT, transmit a transmitted electromagnetic RF signal including a test data pattern to the DUT, and receive a received electromagnetic RF signal emitted from the DUT. The test circuits are configured to: receive a first electrical signal converted from the received electromagnetic RF signal, extract first data from the first electrical signal, determine a first error rate between the test data pattern and the first data, and generate a test result on the basis of the first error rate.

Abstract: A system and a process for automatic detection of medical adherence in a medical device is disclosed. The process includes automatically detecting a state change of a medical device based on a motion of the medical device. The state change may be from a closed state to an open state. It is determined whether a state change processor is within a range of the medical device. The state change processor monitors medical or medicine adherence. Upon determining that the state change processor is within the range of the medical device, state change information is sent to the state change processor. A real time change data when the medical activity detector and the state change detector are within a communication range is stored.

Abstract: According to some embodiments, a tester tests one or more DUTs by utilizing one or more respective reference devices. The tester comprises one or more test sites and one or more test circuits operatively coupled to each of the test sites. Each test site is configured to: hold a reference device and a DUT, transmit a transmitted electromagnetic RF signal including a test data pattern to the DUT, and receive a received electromagnetic RF signal emitted from the DUT. The test circuits are configured to: receive a first electrical signal converted from the received electromagnetic RF signal, extract first data from the first electrical signal, determine a first error rate between the test data pattern and the first data, and generate a test result on the basis of the first error rate.

Abstract: According to some embodiments, a tester tests one or more DUTs by utilizing one or more respective reference devices. The tester comprises one or more test sites and one or more test circuits operatively coupled to each of the test sites. Each test site is configured to: hold a reference device and a DUT, transmit a transmitted electromagnetic RF signal including a test data pattern to the DUT, and receive a received electromagnetic RF signal emitted from the DUT. The test circuits are configured to: receive a first electrical signal converted from the received electromagnetic RF signal, extract first data from the first electrical signal, determine a first error rate between the test data pattern and the first data, and generate a test result on the basis of the first error rate.

Abstract: According to some embodiments, a tester tests one or more DUTs by utilizing one or more respective reference devices. The tester comprises one or more test sites and one or more test circuits operatively coupled to each of the test sites. Each test site is configured to: hold a reference device and a DUT, transmit a transmitted electromagnetic RF signal including a test data pattern to the DUT, and receive a received electromagnetic RF signal emitted from the DUT. The test circuits are configured to: receive a first electrical signal converted from the received electromagnetic RF signal, extract first data from the first electrical signal, determine a first error rate between the test data pattern and the first data, and generate a test result on the basis of the first error rate.

Abstract: A system for promoting medication adherence is provided. The system may receive medical information and medication access information via a medication adherence device, the medication adherence device having a housing configured to be removably coupled to a medicine container top and an access switch, the access switch generating medication access information when the housing is uncoupled from the medicine container top. The information may be used to form one or more blind spots which may be representative of symptoms of glaucoma and which may be produced on the display screen of a patient's client device. The system may use Gamblification and/or Gamification in which a blind spot obscures portions of a game of chance program and/or novelty game type program, respectively, from being observed on the display screen of the client device.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: Methods permitting erasures to be performed evenly over time in memory, thereby extending the service life of a data storage device, and devices operable to perform those methods. Erasures performed on a given physical block in memory are tracked by incrementing a corresponding erase count included in an entry associated with a logical block correlated with that physical block. Each of a plurality of physical blocks included in the memory is associated with logical zones such that each logical zone comprises a different portion of the physical blocks. An erase count indicator is determined for each logical zone. When the total number of erasures for the given physical block reaches a limit, the entry associated with the logical block correlated with that physical block is exchanged with another entry associated with a logical block correlated with a physical block in a logical zone having a lower count indicator.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: Methods permitting erasures to be performed evenly over time in memory, thereby extending the service life of a data storage device, and devices operable to perform those methods. Erasures performed on a given physical block in memory are tracked by incrementing a corresponding erase count included in an entry associated with a logical block correlated with that physical block. Each of a plurality of physical blocks included in the memory is associated with logical zones such that each logical zone comprises a different portion of the physical blocks. An erase count indicator is determined for each logical zone. When the total number of erasures for the given physical block reaches a limit, the entry associated with the logical block correlated with that physical block is exchanged with another entry associated with a logical block correlated with a physical block in a logical zone having a lower count indicator.

Abstract: Methods for extending the service life of a data storage device and devices operable to perform those methods are presented. A master lookup table block may comprise lookup table blocks and store an erase count indicator for each lookup table block. Each lookup table block may be associated with a logical zone of a memory and comprise entries. Each entry may be associated with a logical block and comprise an erase count for a physical block corresponding to that logical block. A physical block erasure may be performed on a first physical block in the memory. The physical block erasure may be tracked by incrementally increasing a first erase count. An actual erase count may be determined for the first physical block. The entry for a logical block corresponding to the first physical block may be exchanged with another entry within a different lookup table block when the actual erase count for the first physical block exceeds a threshold.

Abstract: A method for making memory more reliable involves accessing data stored in a removable storage device by translating a logical memory address provided by a host digital device to a physical memory address in the device. A logical memory address is received from the host digital device. The logical memory address corresponds to a location of data stored on the removable storage device. A physical memory address corresponding to the local address is determined by accessing a lookup table corresponding to the logical zone.

Abstract: Methods for extending the service life of a data storage device and devices operable to perform those methods are presented. A master lookup table block may comprise lookup table blocks and store an erase count indicator for each lookup table block. Each lookup table block may be associated with a logical zone of a memory and comprise entries. Each entry may be associated with a logical block and comprise an erase count for a physical block corresponding to that logical block. A physical block erasure may be performed on a first physical block in the memory. The physical block erasure may be tracked by incrementally increasing a first erase count. An actual erase count may be determined for the first physical block. The entry for a logical block corresponding to the first physical block may be exchanged with another entry within a different lookup table block when the actual erase count for the first physical block exceeds a threshold.