Abstract: A data processing method includes receiving, by a source physical machine, a first data packet including first data, and a destination address of the first data is a first virtual machine, generating a second data packet including the first data and an identifier of a second virtual machine, where the second virtual machine is the first virtual machine after being live migrated from the source physical machine to a destination physical machine, and the identifier of the second virtual machine identifies the second virtual machine on the destination physical machine, and sending, by the source physical machine, the second data packet to the destination physical machine.

Abstract: A system and method for CO2 capture and electroregeneration and synchronous conversion are provided. The system includes a CO2 capture subsystem, which uses an absorption liquid to capture CO2 and generate a capture liquid; and a CO2 electroregeneration and synchronous conversion subsystem, including a cathode chamber provided with a cathode electrode, a sample inlet, and a sample outlet, an anode chamber having an anode electrode, a sample inlet connected to an outlet of the capture liquid of the CO2 capture subsystem, and a sample outlet connected to the sample inlet of the cathode chamber for introducing CO2 regenerated by anodic oxidation into the cathode chamber for electroreduction, and a balance chamber in the middle having a sample outlet connected to an inlet of the absorption liquid of the CO2 capture subsystem. The system can perform self-circulation and stably operate, to capture, regenerate and convert CO2.

Abstract: A human ecological negative oxygen ion cell activation and meridian moxibustion intelligent communication physical therapy platform, including a base plate, lifting assembly and smoke discharging assembly, wherein the lifting assembly is installed at a front surface of the base plate, the smoke discharging assembly is installed inside the base plate and the lifting assembly, and the lifting assembly includes a physical therapy box, sliding rails, threaded rods, a motor, a sliding block and a square block; a C-shaped stander is installed at the front surface of the base plate, two fixing plates are symmetrically installed at an inner surface of the C-shaped stander, at least one installation shielding plate is installed at neighboring sides of the fixing plates, a front surface of the at least one installation shielding plate is installed at outer sides of the sliding rails, the sliding rails are slidably connected with the sliding block.

Abstract: A flexible peristaltic robot with a built-in bidirectional gas pump for self-regulating gas flow. The robot includes a head-end airbag, an extension-retraction airbag, a tail-end airbag, a power module, a control module and a bidirectional gas pump. When there is harmful gas or less gas in the external environment, an additional airbag is provided in the flexible peristaltic robot to form a closed internal circulation of air flow. Otherwise, the robot directly exchanges gas with the external environment to form an open external circulation of air flow. The flexible peristaltic robot can either use multiple bidirectional air pumps or use a single bidirectional air pump and multiple electrically-controlled switches to control the expansion and contraction of the airbags to enable the robot to move forward.

Abstract: A method of forming a belt structure for a tire includes providing a drum having a center section. A first drum edge is near a first edge of the center section and a second drum edge is near a second edge of the center section. A first end surface extends from the center section first edge to the drum first edge and a second end surface extends from the center section second edge to the drum second edge, and a radius of each end surface is smaller than the center section radius. A rubber strip reinforced by a plurality of cords includes an outer edge and an inner edge. The strip is wound about the drum, turning from a first winding angle to a second winding angle on an end surface to reduce the tension and length differential between cords at the outer edge and inner edge of the strip.

Abstract: A method of forming a belt structure for a tire includes providing a drum having a center section. A first drum edge is near a first edge of the center section and a second drum edge is near a second edge of the center section. A first end surface extends from the center section first edge to the drum first edge and a second end surface extends from the center section second edge to the drum second edge, and a radius of each end surface is smaller than the center section radius. A rubber strip reinforced by a plurality of cords includes an outer edge and an inner edge. The strip is wound about the drum, turning from a first winding angle to a second winding angle on an end surface to reduce the tension and length differential between cords at the outer edge and inner edge of the strip.

Abstract: A receiver (50) is provided for collecting a refrigerant flowing through a refrigerant flow circuit. The receiver housing (52) defines an enclosed volume (55) establishing a refrigerant collection reservoir, and has an inlet (54), a first outlet (56), and a second outlet (58). A refrigerant metering device (70) is disposed within the enclosed volume (55) in operative association with the second outlet (58) for controlling a flow of refrigerant discharging through the second outlet (58). The refrigerant metering device (70) may be a capillary tube metering device (72). The receiver (50) may also include a refrigerant filter/dryer (80) disposed within the enclosed volume (55).

Abstract: A receiver (50) is provided for collecting a refrigerant flowing through a refrigerant flow circuit. The receiver housing (52) defines an enclosed volume (55) establishing a refrigerant collection reservoir, and has an inlet (54), a first outlet (56), and a second outlet (58). A refrigerant metering device (70) is disposed within the enclosed volume (55) in operative association with the second outlet (58) for controlling a flow of refrigerant discharging through the second outlet (58). The refrigerant metering device (70) may be a capillary tube metering device (72). The receiver (50) may also include a refrigerant filter/dryer (80) disposed within the enclosed volume (55).