6results about How to "Appropriate distribution" patented technology

It is an object to provide a resistance spot welded joint and a resistance spot welding method therefor. The present invention is a resistance spot welded joint having a resistance spot weld formed by resistance-spot-welding two or more steel sheets including at least one high strength steel sheet. The high strength steel sheet has a specific chemical composition. The hardness Hv1 of a first region of a heat-affected zone and the hardness Hmv of martensite in a nugget as a whole satisfy the relation Hv1 ≤ 0.78 × Hmw, and the hardness Hv2 of a second region of the heat-affected zone and the hardness Hv1 of the first region satisfy the relation Hv2 ≥ 1.10 × Hv1. The hardness Hv3 of a third region of the heat-affected zone and the hardness Hv2 of the second region satisfy the relation Hv3 ≤ 0.90 × Hv2.

The present application relates to a communication device, a control method of a communication device, a program product, and a storage medium, and provides a technique for appropriately allocating throughput. A communication device capable of relaying data acquired via a network to one or more other communication devices, the data communication device comprising: an acquisition mechanism that acquires information of a maximum throughput of the communication device; a connection mechanism that connects with the one or more other communication devices; and a decision mechanism that decides a transmission throughput of transmitting data to each of the one or more other communication devices based on the number of connections of the one or more other communication devices and the information of the maximum throughput.

This information processing device is provided with a control unit that: acquires past processing performance, load conditions at the current point in time, stock amounts, and required amounts of recycled materials for each of a plurality of enterprises constituting a supply chain for manufacturing products by a plurality of steps using recycled materials; in accordance with the generation of the recycled material, generating a combination of enterprises corresponding to each of the plurality of steps in which the load of each of the enterprises corresponding to each of the plurality of steps is equal to or less than a prescribed load, on the basis of the past processing performance, the load condition at the current point in time, the stock amount, and the required amount of the recycled material; and outputting information relating to the delivery date and the delivery amount of the recycled material to terminals of each enterprise corresponding to the generated enterprise combination.

The refrigerant distributor disclosed herein comprises: an outer tube in which refrigerant flows, and a plurality of heat-conducting tubes connected to the outer tube at predetermined intervals; an inner tube in which refrigerant flows, the inner tube being housed within the outer tube, and having a refrigerant outlet orifice for allowing the refrigerant flowing inside the inner tube to flow to the outer tube; and a structural section disposed on the inner tube or the outer tube, allowing refrigerant to flow into the inner tube. In the structural section, the refrigerant is in a state where a gas-liquid two-phase flow has not yet developed. The refrigerant outlet orifice is configured such that the angle θ from the lower end of the inner tube on a vertical line passing through the center of the inner tube to the location of the refrigerant outlet orifice, when viewed from the center of the inner tube, is set in the range of 10°≤θ≤80°. In the vertical cross-section of the inner tube at the location where the refrigerant outlet orifice is provided, there is only one refrigerant outlet orifice.

A method for controlling power reception of an electric storage element controls the power received by an electric storage element (EV) in an electric power system that supplies electric energy to a load group (11) including a plurality of electric storage elements (EV) via a power supply base station (10). In the power reception control method, a difference power is obtained by subtracting the current value of the total power transmission from the maximum value of the total power transmission that can be transmitted to the entire load group (11) via the power supply base station (10), the priority of the electric storage element (EV) is calculated based on a numerical value indicating a request of a user of the electric storage element, the difference power is multiplied by the priority of the electric storage element (EV) to calculate the element difference power, and the element difference power is added to the last element power reception to update the element power reception.

A refrigerant distributor according to an embodiment of the present disclosure includes an outer pipe through which refrigerant flows and to which a plurality of heat transfer pipes are connected at a predetermined spacing from each other, an inner pipe, housed in the outer pipe, through which the refrigerant flows and that has a refrigerant outflow hole through which the refrigerant flows out of the inner pipe into the outer pipe, and a structural part with which the inner pipe or the outer pipe is provided, in which the refrigerant enters an undeveloped state of two-phase gas-liquid flow, and through which the refrigerant flows into the inner pipe. The refrigerant outflow hole is provided such that an angle θ between a lower end of the inner pipe on a vertical line passing through a center of the inner pipe and a position of presence of the refrigerant outflow hole as seen from the center of the inner pipe falls within a range of 10 degrees ≤ θ ≤ 80 degrees. The refrigerant outflow hole comprises a sole refrigerant outflow hole provided in a vertical cross-section of the inner pipe at a position where the refrigerant outflow hole is provided.