Abstract: A processing machine (10) for building an object (11) from powder (12) includes a build platform (26A); a powder supply assembly (18) that deposits the powder (12) onto the build platform (26A) to form a powder layer (13); and an energy system (22) that directs an energy beam (22D) at a portion of the powder (12) on the build platform (26A) to form a portion of the object (11). The powder supply assembly (18) can include (i) a powder container (640A) that retains the powder (12); (ii) a supply outlet (639) positioned over the build platform (26A); and (ii) a flow control assembly (642) that selectively controls the flow of the powder (12) from the supply outlet (639).

Abstract: Embodiments of the invention are directed to a system, method, or computer program product for cross-channel network security with tiered adaptive mitigation operations. In this regard, the invention is structured for dynamic detection of security events associated with network devices and resources, and triggering real-time mitigation operations across a plurality of resource channels. The invention provides a novel method for employing activity data to construct and implement mitigation actions for de-escalating authorization tiers that are adapted to the specific attributes of the activity data, in order to prevent security exposure associated with the activity. Another aspect of the invention is directed to determining whether to continue the tiered adaptive mitigation actions and/or trigger a security proceed signal.

Abstract: A lubricating member for a hair removal device, in which the lubricating member includes a lubricating material, in which the lubricating material includes a polyglutamic acid (PGA) material. Also disclosed is a lubricating composition including: a matrix material and a lubricating material, in which the lubricating material includes a PGA material and the PGA includes at least 5% of the lubricating composition by weight. Also disclosed is a method of forming a corresponding lubricating member.

Abstract: Systems, methods, and computer program products are provided for validating a deposit request. The method includes receiving a deposit request from a user device. The deposit request includes a deposit transaction information relating to an intended deposit. The method also includes determining a deposit transaction confidence level based on the deposit transaction information. The deposit transaction confidence level indicates a likelihood of the intended deposit being perfected. The method further includes causing a transmission of an audit request to the user device relating to the deposit request upon determining the deposit transaction confidence level is below a confidence level threshold. The audit request includes a request to confirm one or more details relating to the deposit request. The method still further includes determining a deposit determination based on a response to the audit response. The deposit determination indicates whether the intended deposit will be executed.

Abstract: Embodiments of the invention are directed to a system, method, or computer program product for cross-channel network security with tiered adaptive mitigation operations. In this regard, the invention is structured for dynamic detection of security events associated with network devices and resources, and triggering real-time mitigation operations across a plurality of resource channels. The invention provides a novel method for employing activity data to construct and implement mitigation actions for de-escalating authorization tiers that are adapted to the specific attributes of the activity data, in order to prevent security exposure associated with the activity. Another aspect of the invention is directed to determining whether to continue the tiered adaptive mitigation actions and/or trigger a security proceed signal.

Abstract: A system employing vector signal generator (VSG) and vector signal analyzer (VSA) modules or cards that are configured to test multiple devices under test simultaneously. Each VSG is configured to generate multiple RF test signals and send them to multiple devices under test simultaneously. Similarly, each VSA is configured with multiple signal receiving modules connected to a single controller or memory. Each signal receiving module receives an RF signal from a device under test, converts it to a baseband digital signal, and transmits this digital signal to the VSA's memory. A single RF testing system can employ multiple such VSGs and VSAs, each capable of evaluating multiple devices under test. Each VSG/VSA can further be tuned for operation in discrete or defined frequency bands, which are narrower than those for conventional RF testers, and which can correspond to various wireless standards.

Abstract: A system for parallel radio frequency (RF) testing. The system includes a plurality of signal generators, a plurality of signal analyzers, a data bus connected to the plurality of signal generators, and a controller. The controller has a connection to the data bus so as to be in electronic communication with the plurality of signal generators, and has a plurality of point to point links to respective ones of the signal analyzers so as to be in electronic communication with the plurality of signal analyzers.

Abstract: A multifunction mouth mask includes a mask body having two elastic cords respectively connected with two lateral ends of the mask body. A receiving space is opened on one side surface of the mask body. A sounding unit is received in the receiving space of the mask body. The sounding unit has a filter placed into the receiving space. A connecting unit is connected between the sounding unit and the receiving space for positioning the sounding unit into the receiving space of the mask body. Wherein, when a user wears the mouth mask for covering the mouth and the nose thereof, the user can control the sounding unit to sound a voice.

Abstract: A system for parallel radio frequency (RF) testing. The system includes a plurality of signal generators, a plurality of signal analyzers, a data bus connected to the plurality of signal generators, and a controller. The controller has a connection to the data bus so as to be in electronic communication with the plurality of signal generators, and has a plurality of point to point links to respective ones of the signal analyzers so as to be in electronic communication with the plurality of signal analyzers.

Abstract: A system employing vector signal generator (VSG) and vector signal analyzer (VSA) modules or cards that are configured to test multiple devices under test simultaneously. Each VSG is configured to generate multiple RF test signals and send them to multiple devices under test simultaneously. Similarly, each VSA is configured with multiple signal receiving modules connected to a single controller or memory. Each signal receiving module receives an RF signal from a device under test, converts it to a baseband digital signal, and transmits this digital signal to the VSA's memory. A single RF testing system can employ multiple such VSGs and VSAs, each capable of evaluating multiple devices under test. Each VSG/VSA can further be tuned for operation in discrete or defined frequency bands, which are narrower than those for conventional RF testers, and which can correspond to various wireless standards.

Abstract: Certain example embodiments disclosed herein relate to multi-chip module (MCM) packages that include external and internal electrostatic discharge (ESD) protection circuits, and/or methods of making the same. In certain example embodiments, ESD protection circuits are located under the IO pads in the MCM package, the size of the internal dies' ESD circuits are reduced (e.g., by making them as small as possible in certain example implementations), and high-immunity ESD circuits are provided to the IO pads where they are exposed to the external environment. The external ESD protection circuits may provide a higher level of voltage protection than the internal ESD protection circuits. Thus, the external ESD protection circuits may provide shock protection from human body model shocks, whereas the internal ESD protection circuits may provide protection from machine or assembly model shocks.

Abstract: Certain example embodiments disclosed herein relate to multi-chip module (MCM) packages that include external and internal electrostatic discharge (ESD) protection circuits, and/or methods of making the same. In certain example embodiments, ESD protection circuits are located under the IO pads in the MCM package, the size of the internal dies' ESD circuits are reduced (e.g., by making them as small as possible in certain example implementations), and high-immunity ESD circuits are provided to the IO pads where they are exposed to the external environment. The external ESD protection circuits may provide a higher level of voltage protection than the internal ESD protection circuits. Thus, the external ESD protection circuits may provide shock protection from human body model shocks, whereas the internal ESD protection circuits may provide protection from machine or assembly model shocks.