Abstract: A system comprising a tray and methods of loading and unloading units for sample racks. The system provides a tray for loading and unloading of samples to a system, wherein the tray comprises a base plate comprising on its upper surface a longitudinal extending guiding rail which is arranged closer to one of the two longitudinal sides of the tray, wherein the tray comprises at least one element that is configured to extend through an opening in the upper surface of the base plate, when the tray is lifted from a surface. Further, a system, comprising a tray as described above; and at least one rack comprising on its lower surface an acceptance slot configured for accommodating a guiding rail of the tray, and a loading area comprising two toothed conveyer belts arranged in a distance corresponding to the trays width.

Abstract: The disclosed technology provides micro-assembled micro-LED displays and lighting elements using arrays of micro-LEDs that are too small (e.g., micro-LEDs with a width or diameter of 10 ?m to 50 ?m), numerous, or fragile to assemble by conventional means. The disclosed technology provides for micro-LED displays and lighting elements assembled using micro-transfer printing technology. The micro-LEDs can be prepared on a native substrate and printed to a display substrate (e.g., plastic, metal, glass, or other materials), thereby obviating the manufacture of the micro-LEDs on the display substrate. In certain embodiments, the display substrate is transparent and/or flexible.

Abstract: A method of printing comprises providing a component source wafer comprising components, a transfer device, and a patterned substrate. The patterned substrate comprises substrate posts that extend from a surface of the patterned substrate. Components are picked up from the component source wafer by adhering the components to the transfer device. One or more of the picked-up components are printed to the patterned substrate by disposing each of the one or more picked-up components onto one of the substrate posts, thereby providing one or more printed components in a printed structure.

Abstract: A micro-transfer structure comprises a stamp comprising a rigid support, only a single contiguous bulk layer disposed on the rigid support, and posts disposed on the bulk layer. Components are adhered to (e.g., disposed in contact with) some but not all of the posts. The posts can be substantially identical and disposed in a regular array on the bulk layer. Each component is adhered to (e.g., in contact with) two or more posts. Components can be disposed on a source wafer entirely over sacrificial portions of a sacrificial layer on or in the source wafer and attached to anchors disposed between sacrificial portions with a tether.

Abstract: A call identification system for verifying telephone calls, the system including a processor in communication with a calling device and a user device. The processor transmits a whitelist to the user device. The whitelist comprises telephone numbers having a label. The processor receives an identification attribute associated a call to the user device. The call is delayed until the calling device receives an acknowledgment from the user device. The processor compares the calling telephone number with each telephone number and generates a notification in response to a match. The processor transmits the notification to the user device, causing the user device to change the label associated with the calling telephone number. The processor receives an acknowledgment from the user device of the label changing and transmits the acknowledgment to the calling device, causing the calling device to launch the call to the user device.

Abstract: A system and method of verifying a caller identification utilizing a server that communicates with a computing device capable of monitoring communication networks for specific communications from an enterprise voice network. The server can push a spoof prevention contact list to user devices. Additionally, the server can receive notifications from the computing device in response to user inputs that allow match analysis to occur with the information in the received notifications. When a match is found, the server can send a notification to a user device to modify a contact name in the spoof prevention list stored in the user device. After a specified time, the contact name can be altered back to the original state. As an example, the contact name in the spoof prevention list may start out as “unverified call,” and be changed temporarily to “verified call” upon receipt of the notification.

Abstract: A system and method of verifying a caller identification utilizing a server that communicates with a computing device capable of monitoring communication networks for specific communications from an enterprise voice network. The server can push a spoof prevention contact list to user devices. Additionally, the server can receive notifications from the computing device in response to user inputs that allow match analysis to occur with the information in the received notifications. When a match is found, the server can send a notification to a user device to modify a contact name in the spoof prevention list stored in the user device. After a specified time, the contact name can be altered back to the original state. As an example, the contact name in the spoof prevention list may start out as “unverified call,” and be changed temporarily to “verified call” upon receipt of the notification.

Abstract: A system and method for soil saturation and digging is disclosed. First, a system for soil saturation and digging is disclosed. Said system comprises a digging tool having a first end and a second end, a pipe having a first end and a second end, a hose socket, a nozzle, a trigger, and a shield. Said pipe having an axial body capable of transporting a fluid between said first end and said second end of said pipe. Said hose socket capable of receiving a hose comprising said fluid. Said nozzle capable penetrating a surface and a subsurface and of spraying said fluid into said subsurface. Said trigger is capable of controlling a flow of said fluid. Said shield capable of redirecting a diverted fluid displaced by said digging tool. Wherein, said nozzle attaches to said first end of said digging tool, said hose socket attaches to said second end of said digging tool, and said shield attached around said pipe. Next, a method for soil saturation and digging is disclosed.

Abstract: A method of optimizing speculative address load processing by a microprocessor includes identifying a speculative load, marking the speculative load, determining whether a miss occurs for the speculative load, and preventing use of the marked speculative load by the microprocessor if a miss occurs. A method of optimizing speculative address load processing by a microprocessor includes identifying a speculative load, marking the speculative load, inserting the marked speculative load into a load miss queue, determining whether a miss occurs for the speculative load, and preventing the load miss queue from committing the marked speculative load to cache if a miss occurs.

Abstract: A method and apparatus of visualizing events within a microprocessor include simulating the operation of a microprocessor for a set of instructions, generating the internal state information from the simulation and graphically displaying an execution behavior based on the internal state information. The graphical display represents a flow of the instructions through an internal pipeline in the microprocessor. Execution behavior is selectively displayed based on type of behavior and clock cycle the execution occurred during on the microprocessor. A log of the execution behavior of the set of instructions on the microprocessor is created. The set of instructions is created from a graphical display of selectable instructions.

Abstract: A method of optimizing speculative address load processing by a microprocessor includes identifying a speculative load, marking the speculative load, determining whether a miss occurs for the speculative load, and preventing use of the marked speculative load by the microprocessor if a miss occurs. A method of optimizing speculative address load processing by a microprocessor includes identifying a speculative load, marking the speculative load, inserting the marked speculative load into a load miss queue, determining whether a miss occurs for the speculative load, and preventing the load miss queue from committing the marked speculative load to cache if a miss occurs.