Abstract: A unit configured as constituent part of a fuel cell for use in novel electrochemical hydrogen compressor material technology system includes a combination of a hydrocarbon auto-thermal reformer, a water-gas shift reactor, and at least two countercurrent flow heat recuperators at least one of which is downstream from both the reformer and reactor. Optionally, two of the at least two recuperators are separated by the reactor to generate H2 in addition to that already contained in reformate formed at the reformer. The unit may include a proton conducting membrane that includes an inorganic polymer with pores filled with an organic polymer, each of which is configured to operate individually within a wide range of temperatures with no added solvent.

Abstract: A load balancing method and a related device is provided. The method includes: determining topology information of each of a plurality of smallest management units pods in a load balancing cluster to which a first node belongs, where the plurality of pods are distributed on at least two nodes; determining a weight of each of the plurality of pods based on the topology information of each pod; and selecting a target pod from the plurality of pods based on the weight of each pod, where the target pod is configured to process a currently to-be-processed task in the first node. In embodiments of this application, network overheads can be reduced when a task request is allocated.

Abstract: A novel electrochemical hydrogen compressor material technology system comprising a composite polymer membrane made from a blend of inorganic and organic polymers, the preparation and the use thereof.

Abstract: A composite proton-conducting membrane comprising an inorganic polymer whose pores are filled with an organic polymer, wherein both the inorganic polymer and the organic polymer are proton conductors and wherein said composite proton-conducting membrane can operate in the absence of solvents, such as water.

Abstract: A data forwarding method and a related apparatus. The method includes: a head node obtains to-be-forwarded data; obtains a first segment identifier (SID) list corresponding to the to-be-forwarded data, where the first SID list is generated based on SIDs of a part of nodes in a target forwarding path; encapsulates, in front of the to-be-forwarded data, a packet header including the first SID list, to obtain a to-be-forwarded packet; and sends the to-be-forwarded packet based on the first SID list, where the target forwarding path includes M nodes, the first SID list is generated based on first N nodes in the M nodes, the first SID list is replaced with a second SID list at an intermediate node, and the second SID list is generated based on an Xth node to a Yth node in the M nodes.

Abstract: A fuel cell stack comprising one or more high temperature membrane electrode assemblies (MEAs) and a bipolar plate comprising a liquid cooling chamber and gas flow channels; then use thereof, and the preparation thereof. The invention also encompasses an electrical generating system.