Betten & Resch

A memory subsystem in a compute device includes a number of memory controllers in combination with one or more physical layers (PHY). A processor of the device adjacent to the memory controllers communicates processing commands for memory requests with the MCs that manages the reading and writing of data from memory via the PHY. The width of the PHY defines the amount of space required by the memory subsystem along an edge of the processor. A number PHY are accommodated within the space of one PHY beachfront through stacking PHY with respect to the memory controllers. Tunnels are provided across the PHY passing between I/O pads of the PHY that connect distant PHY to the memory controllers. The compute device can utilize larger amounts of memory supporting multiple PHY in the space of one memory subsystem.

A substrate on which a plurality of light sources can be mounted. The substrate including: a base including a base portion having a flat surface, and a plurality of protrusions, each of which is surrounded by the flat surface and has an upper surface located above the flat surface; an insulating member arranged on the flat surface, the insulating member having a thermal conductivity lower than a thermal conductivity of the base; and a wiring arranged on the insulating member. The plurality of protrusions include, in a top view, a first protrusion located at a center and having a first upper surface, and two or more second protrusions located outside the first protrusion, each of which has a second upper surface. The second upper surface having an area smaller than an area of the first upper surface.

The present application relates to systems and methods for efficiently managing a data storage. The database may be a distributed database in which objects include references to a plurality of distributed data chunks. These data chunks can be referenced by a plurality of objects, and the system is configured to efficiently identify when one or more data chunks are no longer referenced by any object within the system. The system can be configured to have a two-layer architecture in which back-references for the data chunks are collected and a total count of back-references are determined. These two-layers can be based on an incremental identification of back-references, and each layer can be horizontally partitioned.

Generally disclosed herein is an automatic software agent update approach for dynamically deploying and configuring a software agent within a container in a cloud environment. The approach may include an agent platform and a configuration management system. The agent platform may be configured to manage the deployment and configuration of the software agent. The agent platform may register the software agent, track the status of the software agent, and distribute the software updates for the software agent. The configuration management system may be configured to dynamically configure the software agent based on predefined rules or policies.

Systems and methods are described for generating and rendering a semantic data graph that organizes heterogeneous data sources into a unified visualization structured as an ordered sequence of abstraction layers, each corresponding to a distinct level of abstraction from raw data provided by devices through to consuming applications. One or more users provide data defining data sources and mappings between data sources specifying how data at each level of abstraction corresponds to data at the next. Based on the received data, a semantic data graph is generated comprising nodes representing data sources at respective levels of abstraction and directed edges representing stored mappings between nodes, organized into an ordered sequence of layers.

The technology is directed to systems, methods, and computer-readable mediums for identifying anomalies on a network. One or more temporal network graphs representative of the network may be constructed. One or more anomalies with the network may be identified by one or more GNNs based on the one or more temporal network graphs. The one or more anomalies may be output to a frontend interface.

The technology is generally directed to a gripping system for receiving hard drives of varying thicknesses and located in any position or orientation. The gripping system may include two arms to grip a hard drive and at least one belt positioned along a length of each arm to move the hard drive towards or away from the system. The arms may be pivotally attached so that hard drives of varying widths can be received between the arms. The belts may provide improved control of the hard drive once received between the arms because a force exerted by the belts may secure the hard drive in place to prevent the hard drive from drooping or moving out of place.

A seal inspection apparatus includes a contact portion that contacts the commodity transported by the transport conveyor, an elevating portion that changes a height position of the contact portion, a detecting portion 50 that detects a displacement amount of the height position of the contact portion when the commodity is in contact with the contact portion, an inspection portion 60 that inspects a seal state, and a control portion 70 that controls an elevating operation of the contact portion by the elevating portion and stops transport by the transport conveyor such that the commodity is positioned at an inspection position where contact by the contact portion is performed. The control portion 70 calculates a start timing for starting a lowering operation of the contact portion by the elevating portion, based on a stop timing for stopping the transport by the transport conveyor and a contact timing at which the contact portion contacts the commodity.

A boxing apparatus includes: a pushing mechanism configured to push an article into a box having an opening facing sideways from a lateral side; and a posture changing mechanism configured to rotate the box by a first angle so as to change a posture of the box accommodating the article from a state where the opening faces sideways to a state where the opening faces upward. The posture changing mechanism includes: a suction unit configured to suction, from below, a suctioned side surface that is a side surface of the box located on a lower side of the box when the article is pushed in by the pushing mechanism; a support unit configured to support the suction unit; and a rotation unit configured to rotate the support unit by the first angle around a rotation axis parallel to a boundary line between the suctioned side surface and the opening. The suction unit starts suction in a state where the posture of the box is such that the opening faces sideways; and reduces a suction force or stops suction when the rotation unit rotates the support unit by a second angle that is less than the first angle, with reference to a time when the suction is started.

Disclosed herein is an apparatus and method for controlling a probabilistic-bit (p-bit) cell. In the method, the p-bit cell includes a probabilistic element whose resistive state changes probabilistically, a transistor connected in series with the probabilistic element and configured to control an input current flowing through the probabilistic element in response to an input voltage, a resistance unit connected in series with the transistor, and a comparison circuit configured to generate an output signal by comparing a node voltage formed at a junction node between the probabilistic element and the transistor with a reference voltage, and the method may include variably setting the reference voltage applied to the comparison circuit such that an input current range in which probabilistic operation is performed varies.