Abstract:
The invention relates to an additional rear stoplight (10) to be installed at the back of a passenger compartment (25) in a vehicle, wherein the rear stoplight (10) includes attachment means (14) and a base (12) for receiving lighting means, the attachment means (14) being intended for connecting the base (12) to a wall of the roof (28), and the attachment means (14) including at least one mechanical member (18) extending through the wall of the roof (28). According to the invention, the mechanical member (18) includes at least two tabs (20) extending substantially opposite each other, wherein said tabs are to be moved apart from each other so as to be inserted through the wall of the roof (28), the tabs (20) and the base (12) being moulded together as a single part.
Abstract:
A method of forming a structured adsorbent sheet is provided. The method includes, combining a nano-adsorbent powder and a binder material to form an adsorbent material, and sandwiching a porous electrical heating substrate between two layers of adsorbent material. The nano-adsorbent powder may be a nano-particle adsorbent. The nano-adsorbent powder may be selected from the group consisting of crystal zeolite, activated carbon, activated alumina, silica gel, and metal organic framework (MOF).
Abstract:
The invention relates to a ceramic material in powder form comprising particles having an average particle size of 0.1 to 30 mu m and each formed of an agglomerate of grains with each grain comprising a nanocrystal of a ceramic material of formula (I): Si>3-x x y z
Abstract translation:本发明涉及一种粉末形式的陶瓷材料,其包含平均粒径为0.1至30μm的颗粒,并且每个由颗粒附聚物形成,每个颗粒包含式(I)的陶瓷材料的纳米晶体:Si> 3 -x x O y N z,其中0≤x≤3,0≤y≤6且0≤z≤4,条件是 当x为0或3时,y不能为0.根据本发明的粉末形式的陶瓷材料适用于通过粉末冶金制造陶瓷体,以及通过热形成耐热涂层 沉积。 获得的陶瓷体和涂层具有改善的耐热冲击性。
Abstract:
A Temperature Swing Adsorption method for separating a first component, comprising a more adsorbable component, from a feed stream comprising more than 50 mol% of a second component, comprising a less adsorbable component, is provided. The method includes providing an adsorbent structure suitable for adsorbing the first component, the structure being of the parallel passage contactor type, and cyclically implementing the following steps. Passing the feed stream through the adsorbent structure thus adsorbing the first component and producing a stream depleted in the first component and enriched in the second component. Heating the adsorbent structure to desorb the adsorbed first component by means of circulating a heating stream enriched in the first component at a temperature suitable for regeneration. And cooling the structure by means of passing through it more than 50% of the stream enriched in the second component produced in the step a).
Abstract:
A compressed gas delivery vehicle has a cooling system that cools an interior of a gas storage vessel during filling of the vessel with the gas wherein the gas is sorbed by a sorbent material comprising an adsorbent or an absorbent. A vehicle (1) has an onboard compressed gas container (3) and an onboard cooling system (17). During a filling operation, gas from compressed gas container (3) flows through compressed gas container outlet conduit (4), compressed gas outlet valve (9a) and into compressed gas outlet conduit (9b). A compressed gas fitting (9c) connects conduit (9b) and a gas storage vessel inlet valve (9e). In order to achieve a relatively fast fill rate, a cooling system (17) is employed with the gas storage vessel (13). A chilled coolant is pumped out of the cooling system (17) into cooling system outlet conduit (5b). A chilled coolant fitting (5c) connects cooling system outlet conduit (5b) and gas storage vessel coolant inlet valve (5e). The chilled coolant flows past valve (5e) and into gas storage vessel heat exchange conduit (11).