Abstract:
A thermal recording apparatus for use in a facsimile recording apparatus or the like. Thermal resistors arranged in a thermal recording head are divided into a predetermined number of groups. By group-selection circuits which constitute constant-voltage circuits and which are provided correspondingly to the groups of thermal resistors, the thermal resistors are actuated in a time-divisional manner so as to record image information on a thermosensitive recording paper, whereby each constant voltage circuit with a relatively small capacity is actuated in a time-divisional manner for driving the recording head. Thus, a regulated power supply apparatus with a large capacity is not required, so that the power consumption of the recording apparatus can be reduced and the size thereof can be decreased.
Abstract:
The present invention is directed to a method of preparing an inorganic-alkali metal salt of the formula:ZYwherein Z is an alkali metal selected from the group consisting of lithium and sodium, and wherein Y is an inorganic radical selected from the group consisting of SCN, CN, CNS, OCN, Br, I, Cl, NO.sub.2, NO.sub.3, ClO.sub.4, ReO.sub.4, and CF.sub.3 SO.sub.3. The method involves the reaction of a nitrogen-containing compound of the formula:QHYwherein Q is selected from the group consisting of specified nitrogen-containing groups, and wherein H is hydrogen and Y is as defined above, with an alkali metal compound of the formula:ZXwherein Z is defined above and wherein X is selected from the group consisting of hydrogen, specified nitrogen-containing radicals, and specified organic radicals. The reaction is carried out in ether solvent. In a preferred embodiment, Q is NH.sub.3 and X is hydrogen.
Abstract:
The present invention provides a process for recovering Li values from a sodium saturated brine. The process includes recovering Li values from a sodium saturated brine which contains LiX. The process includes concentrating the sodium saturated brine to at least 9000 mg/l LiX, passing the concentrated brine through a bed of polycrystalline hydrated alumina pellets until the pellets are loaded with LiX from the concentrated brine, displacing brine held-up in the bed by using concentrated NaX, unloading LiX from the pellets by flowing through the bed an aqueous solution of LiX which is not saturated, displacing the LiX from the bed using concentrated NaX, and repeating the steps at least one additional time to provide the Li values.
Abstract translation:本发明提供了从钠饱和盐水中回收Li值的方法。 该方法包括从含有LiX的钠饱和盐水中回收Li值。 该方法包括将钠饱和盐水浓缩至至少9000mg / l LiX,使浓缩的盐水通过多晶水合氧化铝颗粒床,直到颗粒从浓缩的盐水中装入LiX,将置于床中的盐水置于床中 使用浓缩的NaX,通过使床层流过不含饱和的LiX的水溶液从颗粒中卸载LiX,使用浓缩的NaX将LiX从床上移出,并重复该步骤至少一次以提供Li值。
Abstract:
The present invention provides an inexpensive process for the preparation of lithium salts of formula LiX having a desired or required level of purity using lithium chloride and lithium sulfate. In the process of the invention, a lithium salt selected from lithium chloride, lithium sulfate, and combinations thereof is reacted with NaX or KX in a aqueous, semiaqueous, or organic solution and the precipitated salts are removed to obtain the LiX solution of desired purity. Preferably, a semiaqueous solution containing water and an organic solvent is used at some point in the reaction. The process of the invention eliminates the use of highly acidic materials and thus reduces the cost of raw materials and the need for specialized equipment.
Abstract:
The present disclosure relates to methodologies, systems and apparatus for generating lithium ion battery materials. Starting materials are combined to form a homogeneous precursor solution including lithium, and a droplet maker is used to generate droplets of the precursor solution having controlled size. These droplets are introduced into a microwave generated plasma, where micron or sub-micron scale lithium-containing particles are formed. These lithium-containing particles are collected and formed into a slurry to form lithium ion battery materials.
Abstract:
A heat transfer medium is used in solar thermal power plants. The heat transfer medium can reversibly absorb and release water. The heat transfer medium releases water during heating and releases heat during re-absorption of the water.
Abstract:
A heat transfer medium is used in solar thermal power plants. The heat transfer medium can reversibly absorb and release water. The heat transfer medium releases water during heating and releases heat during re-absorption of the water.
Abstract:
The present invention provides a lithium ion battery and positive electrode material thereof. The positive electrode material includes a high nickel material having a chemical formula of LiNixM1-xO2 and a coating layer, wherein 0.5≤X