Abstract: In one embodiment, a device in a network generates a machine learning-based traffic model using data indicative of a particular node in the network attempting to retrieve content from a particular resource in the network. The device predicts, using the traffic model, a time at which the particular node is expected to attempt retrieving future content from the particular resource. The device causes the future content from the particular resource to be prefetched in the network prior to the predicted time. The device makes a security assessment of the prefetched content. The device causes performance of a mitigation action in the network based on the security assessment of the prefetched content and in response to the particular node attempting to retrieve the future content from the particular resource.

Abstract: In one embodiment, a method includes receiving capability information from an end host at a centralized security matrix in communication with a firewall and a plurality of end hosts, verifying at the centralized security matrix, a trust level of the end host, assigning at the centralized security matrix, a firewall function to the end host based on the trust level and capability information, and notifying the firewall of the firewall function assigned to the end host. Firewall functions are offloaded from the firewall to the end hosts by the centralized security matrix. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes establishing at a security device, a secure session for transmitting data between a client device and an end host, receiving decrypted data at the security device from the client device, inspecting the decrypted data at the security device, encrypting the decrypted data at the security device, and transmitting encrypted data to the end host. Decryption at the client device is offloaded from the security device to distribute decryption and encryption processes between the client device and the security device. An apparatus and logic are also disclosed herein.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. A method comprises, after acquiring a diluted sample, preserving a part of the diluted sample, and monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, controlling a liquid addition system to again acquire the preserved part of the sample from a reaction cell or a tube of the liquid addition system and inject it into a counting cell, and then re-counting the sample in the counting cell by an impedance method.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. The method comprises: after acquiring a diluted sample, preserving a part of the diluted sample, and monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, controlling a liquid addition system to again acquire the preserved part of the sample from a reaction cell or a tube of the liquid addition system and inject it into a counting cell, and then re-counting the sample in the counting cell by an impedance method.

Abstract: In one embodiment, a method includes receiving capability information from an end host at a centralized security matrix in communication with a firewall and a plurality of end hosts, verifying at the centralized security matrix, a trust level of the end host, assigning at the centralized security matrix, a firewall function to the end host based on the trust level and capability information, and notifying the firewall of the firewall function assigned to the end host. Firewall functions are offloaded from the firewall to the end hosts by the centralized security matrix. An apparatus and logic are also disclosed herein.

Abstract: A particle analyzer may include a sampling unit configured to collect samples containing particles; a sample preparing unit configured to prepare different sub-samples; a reaction unit configured to incubate the sub-samples and one or more corresponding reagents respectively and provide them to the injecting unit; an injecting unit configured to inject the sub-samples to the optical unit; an optical unit configured to irradiate the sub-samples to obtain particle information; a processing unit configured to process and output the particle information; and a threshold value unit configured to compare a total number of particles with a pre-determined threshold value and to output a result of the comparison to the injecting unit to control subsequent injection of one or more sub-samples.

Abstract: The present disclosure provides a particle analyzer and a particle test control method and device thereof. The method comprises: after acquiring a diluted sample, preserving a part of the diluted sample, and monitoring whether a pore blocking event occurs during a counting process; when the pore blocking event occurs, suspending the test of the sample, and performing an unblocking operation; and after the unblocking operation is completed, controlling a liquid addition system to again acquire the preserved part of the sample from a reaction cell or a tube of the liquid addition system and inject it into a counting cell, and then re-counting the sample in the counting cell by an impedance method.

Abstract: A counter assembly, sheath flow impedance count device, and flow cytometer analyzer are disclosed.

Abstract: A particle analyzer may include a sampling unit configured to collect samples containing particles; a sample preparing unit configured to prepare different sub-samples; a reaction unit configured to incubate the sub-samples and one or more corresponding reagents respectively and provide them to the injecting unit; an injecting unit configured to inject the sub-samples to the optical unit; an optical unit configured to irradiate the sub-samples to obtain particle information; a processing unit configured to process and output the particle information; and a threshold value unit configured to compare a total number of particles with a pre-determined threshold value and to output a result of the comparison to the injecting unit to control subsequent injection of one or more sub-samples.

Abstract: A counter assembly, sheath flow impedance count device, and flow cytometer analyzer are disclosed.

Abstract: A heat-dissipating member for a light source of a projector includes a heat-dissipating sheet connected to the light source of the projector and a fan installed on one side of the heat-dissipating sheet. The heat-dissipating sheet includes a heat-conducting board connected to the light source, a plurality of wings protruding from the heat-conducting board, and a side board protruding from one end of the heat-conducting board to a direction away from the wings and approaching the fan. A surface of the side board facing the fan is wave-shaped. The heat-dissipating member for a light source of a projector provides less volume and ensures the light source to work within a normal working temperature range.

Abstract: A method of packaging includes placing a restrainer on a package during processing. The method includes clipping the restrainer in place and then exposing the package to high temperatures. After processing the restrainer is removed. An alternative process attaches a component die to a substrate having a cavity in a first surface. The process may then include dispensing and curing an underfill material in the cavity, and attaching a lid to the first surface of the substrate.

Abstract: A method of packaging includes placing a restrainer on a package during processing. The method includes clipping the restrainer in place and then exposing the package to high temperatures. After processing the restrainer is removed. An alternative process attaches a component die to a substrate having a cavity in a first surface. The process may then include dispensing and curing an underfill material in the cavity, and attaching a lid to the first surface of the substrate.

Abstract: A method for bonding flat glasses that adjusts proper conditions of bonding surfaces of the flat glasses and then compresses the flat glasses until two flat glasses bind by Ven Der Wall's interaction, an inherent interaction between molecules, to achieve a combined lens assembly. Moreover, heating may be used in the bonding method to decrease time for bonding the flat glasses and to enhance bonding strength. The combined lens assembly is simply bonded by molecular interaction without any adhesive or cohesive solution used in conventional bonding techniques.