Abstract:
Bicyclic heteroaryl compounds of formula (I) shown below are disclosed. Each variable in formula (I) is defined in the specification. Also disclosed is treatment of cancer with these compounds.
Abstract:
Bicyclic heteroaryl compounds of formula (I) shown below are disclosed. Each variable in formula (I) is defined in the specification. Also disclosed is treatment of cancer with these compounds.
Abstract:
This invention relates to indazole compounds of formula (I) or (II) shown below. Each variable in formula (I) or (II) is defined in the specification. These compounds can be used to treat cancer.
Abstract:
This invention relates to indazole compounds of formula (I) or (II) shown below. Each variable in formula (I) or (II) is defined in the specification. These compounds can be used to treat cancer.
Abstract:
2-aryl-4-quinolones are converted into phosphates by reacting with tetrabenzyl pyrophosphate to form dibenzyl phosphates thereof, which are then subject to hydrogenation to replace dibenzyl groups with H, followed by reacting with Amberlite IR-120 (Na+ form) to form disodium salts. The results of preliminary screening revealed that these phosphates showed significant anti-cancer activity. A novel intermediate, 2-selenophene 4-quinolone and Λ/, Λ/-dialkylaminoalkyl derivatives of 2-phenyl-4-quinolones are also synthesized. These novel intermediates exhibited significant anticancer activities.
Abstract:
2-aryl-4-quinolones are converted into phosphates by reacting with tetrabenzyl pyrophosphate to form dibenzyl phosphates thereof, which are then subject to hydrogenation to replace dibenzyl groups with H, followed by reacting with Amberlite IR-120 (Na+ form) to form disodium salts. The results of preliminary screening revealed that these phosphates showed significant anti-cancer activity. A novel intermediate, 2-selenophene 4-quinolone and Λ/, Λ/-dialkylaminoalkyl derivatives of 2-phenyl-4-quinolones are also synthesized. These novel intermediates exhibited significant anticancer activities.
Abstract:
A first peer successively transmits a predetermined number of more than one identical instances of a data block to a second peer. The second peer receives at least two of the predetermined number of identical instances of the data block. The second peer combines more than one corrupted received data block to form a complete instance of the original data block.
Abstract:
A method for controlling the switch of the electronic device includes the following steps: Step (a): Providing a portable cipher code generating device and an electronic device; the cipher code generating device includes a first time-generating unit and an operating-hour unit capable of providing an input while the electronic device includes a cipher-code decoding device; Step (b): By the use of the operating-hour unit, inputting an operating-hour parameter and acquiring a time-parameter to make the cipher code generating device figure out a cipher-code set; Step (c): Providing the cipher-code decoding device with an indicatory parameter; Step (d): Performing comparison between the indicatory parameter and the cipher-code set; Step (e): The electronic device performs the action of the operating-hour parameter when the indicatory parameter is corresponding with the cipher-code set, and the electronic device does not perform the action of the operating-hour parameter when the indicatory parameter is not corresponding with the cipher-code set.