Abstract:
An exhaust gas purifying catalyst capable of exerting excellent NOx purifying capability even at high exhaust gas temperatures, exceeding 500° C., is provided.The catalyst is an absorption reduction-type NOx purifying catalyst comprising an NOx absorbent obtained by loading at least one alkali metal or alkaline earth metal on a crystalline ZrO2 composite oxide having added thereto at least one trivalent rare earth metal or divalent alkaline earth metal. Preferably, aluminum is further supported on the ZrO2 composite oxide. The NOx absorbent is considered to have an NOx absorption mechanism that an electron released from the alkali metal or the like enters into an oxygen vacancy part of the crystalline ZrO2 and this oxygen vacancy part functions as a strong base site for donating an electron to an electrophilic component such as NOx.
Abstract translation:提供即使在超过500℃的高废气温度下也能够发挥出优异的NO x X净化能力的废气净化催化剂。 催化剂是通过将至少一种碱金属或碱土金属负载在结晶ZrO 2上而获得的吸收还原型NO x x N 2净化催化剂,其包含NO x 2N复合氧化物中加入至少一种三价稀土金属或二价碱土金属。 优选地,铝进一步负载在ZrO 2复合氧化物上。 认为NO x吸收剂具有从碱金属等释放的电子进入结晶ZrO 2 <! - SIPO - >这个氧空位部分用作向诸如NO x的亲电组分提供电子的强碱基位点。
Abstract:
A joining connector system comprises: one connector having an engaging piece protruded on a connector housing thereof; and another connector having an engaging groove to which the engaging piece fits and which is formed in a connector housing thereof, the joining connector system being joined by sliding the engaging groove and the engaging piece with each other in a sliding direction. In such a structure, a protrusion having a shape tapered toward the sliding direction is provided near an end portion in a side in which a join of the joining connector is finished in the sliding direction, in at least one of the engaging piece and the engaging groove.
Abstract:
In a lever-actuated connector, on one end part of a side surface of a connector body (23) is formed a protruding lever insertion rib (27), into which an end (24C) of a lever (24) is inserted, which allows the end (24C) of the lever (24) to rock, and which extends upwardly and downwardly. An upper rib linking part (27A) that joins opposing walls that surround a lever insertion slit (31) is formed larger than a lower rib linking part (27B), and an upper through hole (32) communicates between the upper end surface of the upper rib linking part (27A) and the lever insertion slit (31). By adopting this configuration, when the lever insertion slit (31) is formed, die removal is done upwardly and downwardly, and it is not necessary to use a sliding die, thereby simplifying the die construction for the connector body (23), reducing the cost, and also enabling smooth insertion and fitting together of connectors.
Abstract:
A coupling connector includes: a connector housing of a first connector having an engagement piece formed by projecting an outer wall thereof; and a connector housing of a second connector having an engagement groove formed on an outer wall thereof. In the construction, the engagement piece is engaged with the engagement groove. The engagement piece and engagement groove are formed so as to be engaged with each other in an engagement direction intersecting perpendicularly to a coupling direction where the first and second connectors are coupled to each other. The connector housing of the first connector is slid to the coupling direction with respect to the connector housing of the second connector so that the engagement piece is engaged with the engagement groove so that the first connector and second connector are coupled to each other.
Abstract:
An automotive exhaust catalyst includes an alumina support having pores, an NO.sub.x, storage member loaded in the pores having a pore diameter of from 10 to 30.ANG. at least, and a noble metal element loaded on the alumina support. The automotive exhaust catalyst can store NO.sub.x, in a large amount in fuel-lean or oxygen-rich atmosphere, and inhibit the alumina support from sintering, because the NO.sub.x storage member is loaded in a highly dispersed manner.
Abstract:
A condenser (2), an electronic expansion valve (5), an evaporator (6), and a motorized suction throttle valve (8) are connected in series with a compressor. When a capacity is increased, the electronic expansion valve (5) is controlled to be in a throttling direction and the motorized suction throttle valve (8) is controlled to be in an unthrottling direction in association with the control of the electronic expansion valve (5), and when a capacity is decreased, the electronic expansion valve (5) is controlled to be in an unthrottling direction and the motorized suction throttle valve (8) is controlled to be in a throttling direction in association with the control of the electronic expansion valve (5). While a capacity control of a compressor by a throttle control is been carried out, such associated control is made between the electronic expansion valve (5) and the motorized suction throttle valve (8), realizing a fine temperature control in a refrigerating machine without hunting.
Abstract:
A refrigerating apparatus includes a high temperature side first cycle; a high temperature side second cycle; a low temperature side cycle in which carbon dioxide is used as a refrigerant; a first cascade condenser and a second cascade condenser, which each exchange heat between a high temperature side refrigerant and a low temperature side refrigerant; and a control unit lowering an evaporation temperature of a high temperature side evaporator in correspondence to the flow of the low temperature side refrigerant.
Abstract:
A display panel (50a) includes a TFT substrate (20a) in which a plurality of TFTs (5a) are provided, a counter substrate (30a) provided to face the TFT substrate (20a), and a display medium layer (40) provided between the TFT substrate (20a) and the counter substrate (30a), a plurality of pixels being provided so that each of the plurality of pixels is associated with a corresponding one of the TFTs (5a), wherein an oxide semiconductor layer (13) is provided in each of the TFTs (5a) as a channel, and an ultraviolet light absorbing layer (22) having a light transmitting property is provided in each of the pixels (P) so as to overlap the oxide semiconductor layer (13).
Abstract:
An active matrix substrate (20a) includes a plurality of pixel electrodes (18a) arranged in a matrix, and a plurality of TFTs (5) each connected to a corresponding one of the pixel electrodes (18a), and each including a gate electrode (11a) provided on an insulating substrate (10a), a gate insulating film (12a) covering the gate electrode (11a), a semiconductor layer (16a) provided on the gate insulating film (12a) and having a channel region (C) overlapping the gate electrode (11a), and a source electrode (15aa) and a drain electrode (15b) of copper or copper alloy provided on the gate insulating film (12a) and separated from each other by the channel region (C) of the semiconductor layer (16a). The semiconductor layer (16a) is formed of an oxide semiconductor and covers the source electrode (15aa) and the drain electrode (15b).
Abstract:
A refrigerating apparatus includes a high temperature side first cycle; a high temperature side second cycle; a low temperature side cycle in which carbon dioxide is used as a refrigerant; a first cascade condenser and a second cascade condenser, which each exchange heat between a high temperature side refrigerant and a low temperature side refrigerant; and a control unit lowering an evaporation temperature of a high temperature side evaporator in correspondence to the flow of the low temperature side refrigerant.