Abstract: An emulation test system and method are provided for time adjusting emulated echo signals in response to a periodic electromagnetic signal.

Abstract: An apparatus is for generating an emulated radar reflection signal of a target. The apparatus includes a radar detector configured to detect a radar signal frame emitted by a device under test (DUT), an emulation transmitter configured to generate an emulated radar reflection signal of a target being emulated, and a processor configured to generate control signals which control the emulation transmitter according to at least one characteristic of the target being emulated. The processor is further configured to determine a current radar parameter among plural possible radar parameters of the radar signal frame of the DUT, and to adapt the control signals which control the emulation transmitter according to the determined current radar parameter of the radar signal frame of the DUT.

Abstract: A method and system are provided for generating a trigger signal from a radar signal received over the air from a radar under test. The method includes detecting power of the radar signal received from the radar under test at a radio frequency (RF) power detector, the radar signal including multiple bursts of RF energy in a burst pattern; identifying repeating radar frames from the burst pattern using the detected power of the radar signal, each radar frame having at least one burst; and creating trigger signals corresponding to the radar frames, respectively, by synchronizing to the at least one burst in each radar frame.

Abstract: A method and system are provided for generating a trigger signal from a radar signal received over the air from a radar under test. The method includes detecting power of the radar signal received from the radar under test at a radio frequency (RF) power detector, the radar signal including multiple bursts of RF energy in a burst pattern; identifying repeating radar frames from the burst pattern using the detected power of the radar signal, each radar frame having at least one burst; and creating trigger signals corresponding to the radar frames, respectively, by synchronizing to the at least one burst in each radar frame.

Abstract: An apparatus is for generating an emulated radar reflection signal of a target moving at a relative velocity. The apparatus includes a radar detector, an emulation transmitter, and a processor. The radar detector is configured to detect radar chirps emitted by a device under test (DUT), where the chirps are emitted at random time intervals. The emulation transmitter is configured to generate emulated radar reflection signals of the target being emulated. The processor is configured to generate control signals at intervals corresponding to the random time intervals at which the radar chirps are emitted by the DUT, where each control signal controls the emulation transmitter to generate a radar reflection signal. A relative phase of the control signals is adjusted according to a duration of each of the random time intervals between successive chirps and a magnitude and sign of the relative velocity of the target.

Abstract: An apparatus is for generating an emulated radar reflection signal of a target. The apparatus includes a radar detector configured to detect a radar signal frame emitted by a device under test (DUT), an emulation transmitter configured to generate an emulated radar reflection signal of a target being emulated, and a processor configured to generate control signals which control the emulation transmitter according to at least one characteristic of the target being emulated. The processor is further configured to determine a current radar parameter among plural possible radar parameters of the radar signal frame of the DUT, and to adapt the control signals which control the emulation transmitter according to the determined current radar parameter of the radar signal frame of the DUT.

Abstract: An emulation test system and method are provided for time adjusting emulated echo signals in response to a periodic electromagnetic signal.

Abstract: Capability to record relevant aggregated data via a test and measurement instrument interface through a software agent. The agent resides within the test and measurement instrument and gathers the information when activated. The information can be measurement data; measurement setup parameters; test system topology; user notes, brief descriptions, audio recordings or pen input; pictures; or attached documents. The agent can communicate directly to an electronic laboratory notebook server or can store the information on a portable computer readable media (CRM). A user can upload the information from the portable CRM to the server. The user can access the information via a PC workstation.

Abstract: A system includes at least two IEEE 1588 nodes. The nodes are connected by two paths: a low latency communication path and a high bandwidth path. The clocks within the nodes are synchronized to one another at a network interface. Data and timing are transmitted on the high bandwidth path while critical timing signals are passed on the low latency communication path thereby improving timing synchronization.

Abstract: Capability to record relevant aggregated data via a test and measurement instrument interface through a software agent. The agent resides within the test and measurement instrument and gathers the information when activated. The information can be measurement data; measurement setup parameters; test system topology; user notes, brief descriptions, audio recordings or pen input; pictures; or attached documents. The agent can communicate directly to an electronic laboratory notebook server or can store the information on a portable computer readable media (CRM). A user can upload the information from the portable CRM to the server. The user can access the information via a PC workstation.

Abstract: By equipping receiving devices in a network with synchronizable clocks it is possible to periodically send an “impulse” signal that is received by all of the clocks at the same (or relatively the same) instant of time. The accuracy of the impulse clock need not be high, only that its signal reach all the clocks approximately at the same time. In one embodiment, a transmitting device, upon receipt of the synchronizing impulse signal, sends a packet of data bearing the sending device's epoch time-stamp to a receiving device. The data packet makes its way through the network element to the receiving device and the time-stamp is used by the receiving device to calculate the difference between the epoch time of the receiver and the epoch time of the sender. Effectively, this procedure removes the unknown network element transit times from the equation and allows the devices to operate in a synchronized manner.

Abstract: A method for providing a user with test and measurement guidance includes collecting an inventory of available test instruments, providing data for a device under test, providing a test specification, and generating a set of tests to be performed on the device under test utilizing the inventory, data, and test specification.

Abstract: A method including establishing a communication link between one or more measurement equipment installations and a provider of optional features, utilizing circuitry within the measurement equipment installation to allow the measurement equipment installation to exchange information with the provider of optional features and determining optional feature use criteria, the optional feature use criteria including at least an interval during which one or more optional features are enabled on the one or more measurement equipment installations.

Abstract: An arrangement and method for analyzing the timing of events in a test system including a device under test and a plurality of test instruments connected together by one or more communication connections: time-stamps events in a test routine executed by the test instruments under control of a test program to generate time-stamped event data; communicates the time-stamped event data to a central processor; and processes the time-stamped data to output information about the timing of the events.

Abstract: In one embodiment, a computer processor is configured to execute a plurality of instructions defined by an instruction set including at least one real-time instruction. Each of the at least one real-time instruction specifies an execution timing of a respective one of the at least one real-time instruction. Each execution timing is tied to a common real-time measurement system. Other embodiments are also described.

Abstract: A measurement device having a configurable measurement interface that enables the dynamic allocation of responsibilities among front-end and back-end subsystems of a measurement device. A measurement device according to the present teachings includes a front-end subsystem for performing an interaction with a physical environment and back-end subsystem having a set of resources for supporting the front-end subsystem. The front-end and back-end subsystems are coupled to and communicate through a measurement interface. The front-end subsystem transfers a set of bootstrap information via the measurement interface to the back-end subsystem and in response the back-end subsystem configures the resources to support the front-end subsystem.

Abstract: A movable sensor assembly has a resting position proximate to a top surface of an environment to be measured. The sensor assembly includes a sensor that measures an environmental parameter. A spool has an end of line connecting to the sensor. An actuator connects to the spool operative to extend and retract the line. A controller provides control information to the sensor and the actuator. The environmental parameter is selected from a group that includes light, chemical composition, air speed, air velocity, and sound.

Abstract: Circuitry is included to recover the monitorable, e.g. GMII, interface into the path between the actual MAC/PHY device being used and the RJ45 connector to allow PTP circuitry to monitor the transmission and reception of the Ethernet Frames.

Abstract: A system includes at least two IEEE 1588 nodes. The nodes are connected by two paths: a low latency communication path and a high bandwidth path. The clocks within the nodes are synchronized to one another at a network interface. Data and timing are transmitted on the high bandwidth path while critical timing signals are passed on the low latency communication path thereby improving timing synchronization.

Abstract: A system and method of verifying metadata in a measurement processing system is described. Each combination of metadata is associated with a key, and the keys are used to verify that operations performed using the measurements are valid based on the metadata of the respective measurements. Embodiments allow metadata verification to be made prior to operating on measurements. Embodiments also minimize the processing that results from making such checks redundantly causing slowdown in the measurement processing.