Abstract: A method, a device, and a non-transitory storage medium are described in which an blocking delivery service is provided. The service may use an identifier of a source end device, destination address information associated with a destination end device, and configurable criteria as a basis to block delivery of application service layer data. The service may be configured to apply to end devices based on an addressing scheme of the service. The service may be configured on a network device that provides an application service. The service may block delivery without the use of class of service or subscriber provisioning.

Abstract: Grippers, such as robotic grippers, and associated methods and systems are disclosed herein. One disclosed gripper includes a first compliant gripper jaw, a first push-pull assembly having a first distal end fixed on the first compliant gripper jaw, a second compliant gripper jaw, a second push-pull assembly having a second distal end fixed on the second compliant gripper jaw, and an actuator connected to both the first push-pull assembly and the second push-pull assembly.

Abstract: A guidewire includes a first wire with a first diameter. A second wire is coupled with the first wire and has a second diameter that is smaller than the first diameter. A winding extends around the second wire to cover a portion of the second wire and leaves a remainder of the second wire uncovered.

Abstract: A classifying sensing system, a classifying method performed using a sensing system, a tactile sensor, and a method of fabricating a tactile sensor. The classifying sensing system comprises a first spiking neural network, SNN, encoder configured for encoding an event-based output of a vision sensor into individual vision modality spiking representations with a first output size; a second SNN encoder configured for encoding an event-based output of a tactile sensor into individual tactile modality spiking representations with a second output size; a combination layer configured for merging the vision modality spiking representations and the tactile modality spiking representations; and a task SNN configured to receive the merged vision modality spiking representations and tactile modality spiking representations and output vision-tactile modality spiking representations with a third output size for classification.

Abstract: The present disclosure provides for methods, devices, and compositions for controlling factors involved in the healing of lesions. The methods, devices, and composition include a first therapeutic agent which includes an amount of MCP-1 and/or osteopontin effective to promote recruitment of macrophages to the lesion site. In additional embodiments, there is further provided a second therapeutic agent which includes an inhibitor of at least one of IL-17A, CXCL1, or IL-6 to promote polarization of an amount of the macrophages to M2 phenotype macrophages at the lesion site.

Abstract: A gastrointestinal tissue approximation clip (“GI TAC”) system for approximating tissue defects, the GI TAC system including an applicator that is sized to travel through an instrument channel of an endoscope; a plurality of tissue approximation clips that are transported to a plurality of locations about a tissue defect by the applicator; a suture coupled to at least one of the tissue approximation clips; and a clip approximation means for approximating the tissue approximation clips. The clip approximation means and the tissue approximation clips are sized respectively to travel through the instrument channel, and the tissue approximation clips are adapted to be detachably coupled to the applicator.

Abstract: A gastrointestinal tissue approximation clip system for approximating tissue defects, which includes an applicator that is sized to travel through an instrument channel of an endoscope; first and second tissue approximation clips that are transported to first and second locations of a tissue defect respectively by the applicator to approximate the tissue defect; first and second sutures attached to the first and second tissue approximation clips respectively; a clip approximation means for approximating the first and second tissue approximation clips. The clip approximation means and the first and second tissue approximation clips are sized to travel through the instrument channel, and the first and second tissue approximation clips are adapted to be detachably coupled to the applicator.

Abstract: Grippers, such as robotic grippers, and associated methods and systems are disclosed herein. One disclosed gripper includes a first compliant gripper jaw, a first push-pull assembly having a first distal end fixed on the first compliant gripper jaw, a second compliant gripper jaw, a second push-pull assembly having a second distal end fixed on the second compliant gripper jaw, and an actuator connected to both the first push-pull assembly and the second push-pull assembly.

Abstract: A device for creating moving light effects has a light source that is configured to pulse a light ON and OFF according to a desired pattern so as to create a moving light effect that is visible when the light source is moved. Some such devices can be programmed to custom-select color sets that are pulsed ON and OFF according to the desired pattern. Other such devices enable the user to custom select one or more patterns. Some devices can control a duty cycle of and LED of the light source by applying an eight bit octet over each duty cycle time in which the LED is pulsed ON or OFF based on a binary “1” or “0” of the octet. A microlight for use in artistic moving light shows such as gloving can employ such moving light effects, and some such microlights can be operated and programmed using a single actuator button.

Abstract: Single-walled carbon nanotube transistor and rectifying devices, and associated methods of making such devices include a porous structure for the single-walled carbon nanotubes. The porous structure may be anodized aluminum oxide or another material. Electrodes for source and drain of a transistor are provided at opposite ends of the single-walled carbon nanotube devices. A gate region may be provided one end or both ends of the porous structure. The gate electrode may be formed into the porous structure. A transistor of the invention may be especially suited for power transistor or power amplifier applications.

Abstract: Solutions permit or facilitate faster and/or easier processing involving loading or unloading of a work module into a process station. For example, the work module may be a processing tube or the like and the process station may be a heating station such as a tube furnace or the like. In one embodiment, the loading is from a single side of a process station. In one embodiment, the work module includes inlets and outlets for fluid flow, with both inlets and outlets being closer toward one side of the work module than the other side.

Abstract: In some embodiments of the invention, there is a method or apparatus for tight sealing between a first space and a second space. The second space is at least partially enclosed by a member. The method or apparatus includes or performs the step of creating or maintaining a pressure difference between a pressure in a third space at a seal assembly and pressure in each of the first space and the second space; and pushing, caused by the pressure difference, against a seal in the seal assembly to tighten sealing provided by the seal.

Abstract: In one embodiment, an apparatus for fabricating nanostructure-based devices on workpieces includes: a stage for supporting a workpiece, a radiating-energy source, and a feedstock delivery system. The workpiece has catalyst thereon. The radiating-energy source is configured to focus radiating energy toward a work region of the workpiece to directly heat catalyst at the work region, without directly heating catalyst at one or more other work regions of the workpiece. The feedstock delivery system delivers feedstock gas to the catalyst at the work region. The feedstock delivery system includes a feedstock heating system. The feedstock heating system is configured to heat the feedstock gas not merely by any global heating of the chamber or any direct excitation of gas over the work region by the focused radiating energy. Preferably, the radiating-energy source emits multiple prongs of radiating energy.

Abstract: In one embodiment, an apparatus for fabricating nanostructure-based devices on a workpiece includes: a stage for supporting a workpiece, a radiating-energy source, and a feedstock delivery system. The workpiece has catalyst deposited thereon. The workpiece includes multiple work regions (e.g., dies). The feedstock delivery system is for delivery of feedstock gas to said catalyst. The feedstock delivery system is configured to directly heat catalyst on at least one die via simultaneously emitted multiple prongs of radiating energy. Preferably, the feedstock delivery system includes a feedstock heating system that is configured to heat the feedstock gas not merely by any global heating of a chamber containing the work region or any direct excitation of gas over the work region by the radiating energy.