Abstract: The present invention relates to a substrate-triggered single crystal superalloy directional solidification process, including: (1) preparing a single crystal substrate material having crystallographic characteristics that match crystallographic characteristics of the single crystal superalloy; (2) fabricating a single crystal substrate chilling plate using the obtained single crystal substrate material; and (3) applying the obtained single crystal substrate chilling plate in a directional solidification apparatus, and then preparing a single crystal alloy product by performing superalloy melting and directional solidification.

Abstract: Network management automation may use network intent (NI) which represents a network design and baseline configuration for that network or network devices with the ability to diagnose deviation from the baseline configuration. This may include automation of the diagnosis of repetitive problems and the enforcement of preventive measures across a network. This automation may be through an automation data table (ADT), which is an extended global data table for managing network assets and network intents associated with those network assets. ADT is a database for intents, supporting intent creation and replication, and can be used in the PDAS system.

Abstract: Intent Template (NIT) simplifies the Intent's replication. Users can define NIT for any network intent (NI) with the single-device diagnosis by setting the device qualifications and the critical variables to be auto-tested. The Intent with the template configured can be cloned on the fly after it is decoded and installed in the Intent Library, which may be the central console to install Intent and NIT in the Problem Diagnosis Automation System (PDAS) system: enable the backend decoding service to qualify the devices against the template setting; update the baseline data; enable the auto intent to create the intents in the map (Auto Intent for the IAF); install the Intent in TAF and PAF; execute the configure orchestration files downloaded from NetBrain KC to download and install the intents automatically.

Abstract: The present invention discloses a directional solidification method for a superalloy single crystal blade based on solid-liquid interface steady control. The method establishes effective criteria for withdrawal speed adjustment, i.e. the related position between a macro solid-liquid interface and a thermal baffle, the range between the dendrite tips at the solid-liquid interface, and the difference between the advance speed of the macro solid-liquid interface and the withdrawal speed. With these criteria, the advance of the solid-liquid interface during directional solidification is simulated and a withdrawal speed curve v(t) for the solid-liquid interface steady advancement was obtained. And then, the single crystal blade was prepared.

Abstract: Problem Diagnosis Automation System (PDAS) automates the diagnosis of repetitive problems and the enforcement of preventive measures across a network. Automation assets across the network include Network Intent (NI) inside the no-code platform. A Network Intent Cluster (NIC) clones a NI across the network to create a group of NIs (member NIs) with the same design or logic. A subset of Member NIs can be executed according to user-defined conditions based on the member device, the member NI tags, or signature variables. A Triggered Automation Framework (TAF) matches the incoming API calls from a 3rd party system to current incidents and installs the automation (e.g., NI/NIC) to be triggered for each call. It may include: Integrated IT System defining the scope and data of the incoming API calls; Incident Type to match a call to an Incident; and Triggered Diagnosis to define what and how the NIC/NI is executed.

Abstract: A system is disclosed for generating a graphical user interface (GUI) for network management automation. The GUI is a data view that provides functionality for monitoring and controlling devices in a network using a drilldown menu.

Abstract: A system is disclosed for generating a graphical user interface (GUI) for network management automation. The GUI is a data view that provides functionality for monitoring and controlling devices in a network using dynamic dataview templates.

Abstract: The present invention relates to a substrate-triggered single crystal superalloy directional solidification process, including: (1) preparing a single crystal substrate material having crystallographic characteristics that match crystallographic characteristics of the single crystal superalloy; (2) fabricating a single crystal substrate chilling plate using the obtained single crystal substrate material; and (3) applying the obtained single crystal substrate chilling plate in a directional solidification apparatus, and then preparing a single crystal alloy product by performing superalloy melting and directional solidification.

Abstract: The present invention discloses a directional solidification method for a superalloy single crystal blade based on solid-liquid interface steady control. The method establishes effective criteria for withdrawal speed adjustment, i.e. the related position between a macro solid-liquid interface and a thermal baffle, the range between the dendrite tips at the solid-liquid interface, and the difference between the advance speed of the macro solid-liquid interface and the withdrawal speed. With these criteria, the advance of the solid-liquid interface during directional solidification is simulated and a withdrawal speed curve v(t) for the solid-liquid interface steady advancement was obtained. And then, the single crystal blade was prepared.

Abstract: A system is disclosed for generating a graphical user interface (GUI) for network management automation. The GUI is a data view that provides functionality for monitoring and controlling devices in a network using a drilldown menu.

Abstract: A system is disclosed for generating a graphical user interface (GUI) for network management automation. The GUI is a data view that provides functionality for monitoring and controlling devices in a network using dynamic dataview templates.

Abstract: The present disclosure relates to a display, an electronic device and a teach pendant for a robot. The display comprises a top cover, a bottom cover and a display module. The display module comprises a glass plate and a base. The glass plate is provided with a display screen component at one side. The base is provided with a bracket thereon. The glass plate is bonded to the bracket, such that the display screen component is received in an opening enclosed by the bracket. The base comprises a bonding portion disposed outside the bracket for bonding the top cover and the bottom cover. The glass plate is positioned in an opening of the top cover, and a top surface of the glass plate is flush with a top surface of the top cover. Embodiments of the present disclosure provide a flat display.

Abstract: The present disclosure relates to a display, an electronic device and a teach pendant for a robot. The display comprises a top cover, a bottom cover and a display module. The display module comprises a glass plate and a base. The glass plate is provided with a display screen component at one side. The base is provided with a bracket thereon. The glass plate is bonded to the bracket, such that the display screen component is received in an opening enclosed by the bracket. The base comprises a bonding portion disposed outside the bracket for bonding the top cover and the bottom cover. The glass plate is positioned in an opening of the top cover, and a top surface of the glass plate is flush with a top surface of the top cover. Embodiments of the present disclosure provide a flat display.

Abstract: An optical film includes a substrate, an anti-glare layer, a first anti-reflective layer and a second anti-reflective layer. The anti-glare layer is disposed on the substrate and has a microstructure disposed on a side of the anti-glare layer away from the substrate. The first anti-reflective layer is disposed on the microstructures of the anti-glare layer, and the anti-glare layer is located between the substrate and the first anti-reflective layer. The second anti-reflective layer is disposed on the first anti-reflective layer, and the first anti-reflective layer is located between the anti-glare layer and the second anti-reflective layer. A refractive index of the first anti-reflective layer is different from a refractive index of the anti-glare layer.

Abstract: An optical film includes a substrate, an anti-glare layer, a first anti-reflective layer and a second anti-reflective layer. The anti-glare layer is disposed on the substrate and has a microstructure disposed on a side of the anti-glare layer away from the substrate. The first anti-reflective layer is disposed on the microstructures of the anti-glare layer, and the anti-glare layer is located between the substrate and the first anti-reflective layer. The second anti-reflective layer is disposed on the first anti-reflective layer, and the first anti-reflective layer is located between the anti-glare layer and the second anti-reflective layer. A refractive index of the first anti-reflective layer is different from a refractive index of the anti-glare layer.