Abstract: An adapting circuit is connected onto the high voltage end output of a magnetron driving power supply. In the adapting circuit, the high frequency part of current in the magnetron anode loop is converted into a part of the filament driving current. The high frequency part is removed by the two primary coils of a ferret core transformer and converted into a larger current on the secondary coil, which is rectified and filtered to increase the driving current in the magnetron filament loop. Two or more power supplies connected with the adapting circuits are connected together in parallel to drive a high power and high filament driving current magnetron with a correct compensation for its filament current.

Abstract: The method of managing error data associated with a vehicle, comprising: storing error data in a memory; categorizing the error data via topic or time frame via a processor coupled to the memory; analyzing the error data into at least one topic thread or a time thread; selecting desired error data from the error data; convening the desired error data into readable information via the processor; and displaying the readable information via a user interface. A system of managing error data associated with a vehicle is also disclosed.

Abstract: The present disclosure provides a method, an apparatus and a system for multi-module scheduling, capable of solving at least one of the problems associated with the multi-module scheduling technique in the related art, i.e., inconsistency in data inputted to a computing module, and a significant delay or low throughput in data transmission between computing modules.

Abstract: The present disclosure provides a method, an apparatus and a system for multi-module scheduling, capable of solving the problem associated with inconsistency in data inputted to a computing module in the multi-module scheduling technique in the related art.

Abstract: A lighting system is provided. The lighting system includes: a plurality of light producing elements, the plurality of light producing elements being arranged in an array including a plurality of branches connected in an electrically parallel configuration with respect to one another, each of the plurality of branches including a plurality of the light producing elements arranged in an electrically series configuration with respect to one another; a plurality of driver circuits, each of the plurality of driver circuits providing electrical energy to a respective one of the plurality of branches; and a processor for detecting failure of one or more of the light producing elements, and adjusting electrical energy provided by at least one of the plurality of driver circuits based on the detection of the failure of the one or more light producing elements.

Abstract: Plastisol compositions having a two-resin interpenetrating polymer network (IPN) are disclosed. The compositions begin with blocked isocyanate grafted acrylic polymer, blocked isocyanate urethane prepolymer, plasticizer, optionally pigment, and optionally thixotropic agent. When subjected to a thermal cure, the isocyanate groups on the acrylic polymer and urethane prepolymer both become unblocked and both react with the crosslinking agent to form an interpenetrating acrylic-polyurethane network. The two-resin IPN offers improved storage stability, hand-feel characteristics, and processing properties for textile printing among other uses. Preferably these plastisol compositions are essentially free of polyvinyl halides and phthalates restricted for regulatory reasons.

Abstract: Provided is a film-forming apparatus capable of cleaning a discharge apparatus under a state in which a film-forming space and a cleaning gas ambience are separated from each other while continuing to form a film on an object to be film-formed having a film-like shape.

Abstract: A light emitting device and a method for manufacturing the same are disclosed. Herein, the light emitting device comprises: a substrate having a light emitting region and a sealing region surrounding the light emitting region; an OLED unit disposed over the light emitting region; a protection layer disposed over the OLED unit; a support unit disposed over the sealing region, wherein materials of the protection layer and the support unit are the same, and the support unit connects to the protection layer; and a cover disposed over the protection layer and the support unit; wherein a first height is between a surface of the support unit adjacent to the cover and a surface of the substrate, a second height is between a surface of the protection layer adjacent to the cover and the surface of the substrate, and the first height is larger than the second height.

Abstract: Plastisol compositions having a two-resin interpenetrating polymer network (IPN) are disclosed. The compositions begin with blocked isocyanate grafted acrylic polymer, blocked isocyanate urethane prepolymer, plasticizer, optionally pigment, and optionally thixotropic agent. When subjected to a thermal cure, the isocyanate groups on the acrylic polymer and urethane prepolymer both become unblocked and both react with the crosslinking agent to form an interpenetrating acrylic-polyurethane network. The two-resin IPN offers improved storage stability, hand-feel characteristics, and processing properties for textile printing among other uses. Preferably these plastisol compositions are essentially free of polyvinyl halides and phthalates restricted for regulatory reasons.

Abstract: A method for controlling error resilience in network communication is described. The method includes: determining, by a receiver-side controller, a packet gap representing a packet loss of a packet being communicated over a network; projecting, by the receiver-side controller, a retransmission time-out for at least one missing packet of the packet loss; issuing, by the receiver-side controller, a retransmission request for the at least one missing packet; if the packet gap is not filled within a first time period of the retransmission time-out, then issuing, by the receiver-side controller, at least one synchronization frame request; and selecting, by a sender-side controller, to respond to at least one of either of the retransmission request or the at least one synchronization frame request and neither of the retransmission request nor the at least one synchronization frame request.

Abstract: An OLED display panel is disclosed, which comprises: a substrate; an OLED unit disposed on the substrate; and an inorganic-DLC composite layer comprising a first inorganic layer and a first DLC layer, wherein the first inorganic layer and the first DLC layer sequentially laminate on the OLED unit, and the first inorganic layer locates between the OLED unit and the first DLC layer. Herein, a ratio of a thickness of the first inorganic layer to that of the first DLC layer is in a range from 50 to 500.

Abstract: A heating and cooling system including a heat pump and a heat storage tank. Stored heat or cold is released from the heat storage tank for heating or cooling a house for a whole day. The heating and cooling system has five working modes: compressor heating or cooling, compressor charging, compressor discharging for heating or cooling, water pump charging and water pump discharging for heating or cooling.

Abstract: A method for controlling error resilience in network communication is described. The method includes: determining, by a receiver-side controller, a packet gap representing a packet loss of a packet being communicated over a network; projecting, by the receiver-side controller, a retransmission time-out for at least one missing packet of the packet loss; issuing, by the receiver-side controller, a retransmission request for the at least one missing packet; if the packet gap is not filled within a first time period of the retransmission time-out, then issuing, by the receiver-side controller, at least one synchronization frame request; and selecting, by a sender-side controller, to respond to at least one of either of the retransmission request or the at least one synchronization frame request and neither of the retransmission request nor the at least one synchronization frame request.

Abstract: A method for controlling error resilience in network communication is described. The method includes: determining, by a receiver-side controller, a packet gap representing a packet loss of a packet being communicated over a network; projecting, by the receiver-side controller, a retransmission time-out for at least one missing packet of the packet loss; issuing, by the receiver-side controller, a retransmission request for the at least one missing packet; if the packet gap is not filled within a first time period of the retransmission time-out, then issuing, by the receiver-side controller, at least one synchronization frame request; and selecting, by a sender-side controller, to respond to at least one of either of the retransmission request or the at least one synchronization frame request and neither of the retransmission request nor the at least one synchronization frame request.

Abstract: Provided is a film-forming apparatus capable of cleaning a discharge apparatus under a state in which a film-forming space and a cleaning gas ambience are separated from each other while continuing to form a film on an object to be film-formed having a film-like shape.

Abstract: A system for enabling communication between devices is described. The system includes the following: a media processing information receiver configured for receiving, at a first device, media processing information associated with a second device, wherein at least one of the first and second device is a mobile device; a comparer configured for comparing the media processing information to a processing time of the at least one media processing component of the first device; a target adjustment level determiner configured for determining a target adjustment level, wherein arriving at the target adjustment level enables the first and second device to achieve a matching media processing quality level; and a media processing component adjuster coupled with the computer and configured for adjusting the at least one media processing component of the first device to meet the target adjustment level.

Abstract: An “intelligent” UV curing assembly is disclosed. The “intelligent” assembly permits automated monitoring of performance parameters, part lifetime, and inventory control of internal parts. The “intelligent” assembly includes an on lamp microprocessor. The on lamp microprocessor may be configured to recognize the internal parts, record accumulated working time of each part, and sample and process data from the plurality of “intelligent” sensors.

Abstract: A method for controlling error resilience in network communication is described. The method includes: determining, by a receiver-side controller, a packet gap representing a packet loss of a packet being communicated over a network; projecting, by the receiver-side controller, a retransmission time-out for at least one missing packet of the packet loss; issuing, by the receiver-side controller, a retransmission request for the at least one missing packet; if the packet gap is not filled within a first time period of the retransmission time-out, then issuing, by the receiver-side controller, at least one synchronization frame request; and selecting, by a sender-side controller, to respond to at least one of either of the retransmission request or the at least one synchronization frame request and neither of the retransmission request nor the at least one synchronization frame request.

Abstract: An “intelligent” UV curing assembly is disclosed. The “intelligent” assembly permits automated monitoring of performance parameters, part lifetime, and inventory control of internal parts. The “intelligent” assembly includes an on lamp microprocessor. The on lamp microprocessor may be configured to recognize the internal parts, record accumulated working time of each part, and sample and process data from the plurality of “intelligent” sensors.

Abstract: A method and system for proactively dropping video frames are disclosed. The method includes: recording, by a computer, a video frame capture timestamp for a video frame that is captured at a first device; associating, by the computer, the video frame capture timestamp to the video frame that is captured; comparing, by the computer, the video frame capture timestamp with a video frame target timestamp for the video frame; and based on the comparing, if a time difference between the video frame capture timestamp and the video frame target timestamp is outside of a predetermined range of time values, then dropping, by the computer, the video frame.