Abstract: A compound of formula I having the structure: or a pharmaceutically acceptable salt thereof, wherein A1 and A2 are independently O or S; X is selected from CH2, CD2, NR3, O, and S, where R3 is selected from hydrogen, C1-C4 linear or branched chain alkyl, halo(C1-C4)linear or branched chain alkyl, and hydroxyl(C1-C4)linear or branched chain alkyl; Y and Z are selected from C and N, where when Y is C, then Z is N, and when Y is N, then Z is C; R1 and R2 are independently selected from hydrogen, deuterium, C1-C4 linear or branched chain alkyl, etc.; or a C1-C2 alkyl substituted with a C3-C5 cycloalkyl ring; or taken together to form a C3-C6 cycloalkyl ring; or where X is CH2 or CD2, then R1 and R2 are independently selected from hydrogen, deuterium, halogen, hydroxyl, C1-C4 linear or branched chain alkyl, etc.; R4 is selected from hydrogen, deuterium, cyano, halogen, (C1-C3) alkoxy, etc.; R5 is selected from hydrogen, deuterium, halogen, C1-C3 alkoxy, amino, (C1-C4 linear or branched chain alkyl)amino, etc.

Abstract: A method of operating a laboratory sample distribution system is presented. The laboratory sample distribution system comprises a number of sample container carriers. The sample container carriers are adapted to carry one or more sample containers. The sample containers comprise samples to be analyzed by a number of laboratory stations. The laboratory sample distribution system also comprises a transport plane. The transport plane is adapted to support the sample container carriers. The method comprises allocating an area of the transport plane as a buffer area. The buffer area is adapted to store a variable number of sample container carriers. The method also comprises controlling the buffer area using a puzzle-based control scheme or using an aisle-based control scheme as a function of a storage density of the buffer area.

Abstract: Optical lenses for illumination purposes (L) are proposed, comprising a lateral surface (C) and a light exit surface (B), wherein the underside is shapes in a plane fashion and has an optical relevant cutout for receiving a light source, which is distinguished by the fact that the lens (L) has a lateral surface (C) that is wholly reflectively coated, and has a light exit surface (B) having the two vertices (b1) and (b2), wherein (b1) and (b2) represent respectively the highest and lowest vertices upon the transition from the light exit surface (B) to the lateral surface (C).

Abstract: A method of operating a laboratory sample distribution system is presented. The laboratory sample distribution system comprises a number of sample container carriers. The sample container carriers are adapted to carry one or more sample containers. The sample containers comprise samples to be analyzed by a number of laboratory stations. The laboratory sample distribution system also comprises a transport plane. The transport plane is adapted to support the sample container carriers. The method comprises allocating an area of the transport plane as a buffer area. The buffer area is adapted to store a variable number of sample container carriers. The method also comprises controlling the buffer area using a puzzle-based control scheme or using an aisle-based control scheme as a function of a storage density of the buffer area.

Abstract: A diamond wire saw exhibits a disc fitted with a groove. The diamond wire is wound around a supply reel activated by a first motor placed close to the centre of the disc. The diamond wire then passes over a pulley, then into the groove of the disc. The diamond wire moves away from the disc in a loop passing through two pulleys between which is placed the part to be sawn. The diamond wire then passes through a tension pulley, then returns to a pulley placed on the disc, and from there to the groove, then to a take-up reel placed close to the centre of the disc, symmetrically to the supply reel. The disc oscillates, communicating a to and fro motion to the wire. At each oscillation, a motor placed on the disc and controlled by approach switches depending on the angular position of the disc, makes the supply reel turn at a certain angle, freeing a certain length of wire.

Abstract: A method of preparing a highly homogenous spinel Li1+XMn2−XO4+Y intercalation compound having a predetermined mean particle size and particle size distribution for 4 V secondary lithium and lithium ion cells is provided. The method comprises mixing at least one manganese compound having a predetermined particle size distribution with at least one lithium compound wherein the manganese compound has a mean particle size of between about 1 and 15 microns and the mean particle size of the lithium compound is less than that of the manganese compound The mixture is then fired in one or more firing steps within specific temperature ranges to form the Li1+XMn2−XO4+Y intercalation compound. Preferably, at least one firing step is at a temperature of between about 700° C. and 900° C.

Abstract: A novel method of preparing a highly homogenous spinel Li.sub.1+X Mn.sub.2-X O.sub.4+Y intercalation compound having a predetermined mean particle size and particle size distribution for 4 V secondary lithium and lithium ion cells is provided. The method comprises mixing at least one manganese compound having a predetermined particle size distribution with at least one lithium compound wherein the manganese compound has a mean particle size of between about 1 and 15 microns and the mean particle size of the lithium compound is less than that of the manganese compound. The mixture is then fired in one or more firing steps within specific temperature ranges to form the Li.sub.1+X Mn.sub.2-X O.sub.4+Y intercalation compound. Preferably, at least one firing step is at a temperature of between about 700.degree. C. and 900.degree. C. The Li.sub.1+X Mn.sub.2-X O.sub.

Abstract: A novel method of preparing a highly homogenous spinel Li.sub.1+X Mn.sub.2-X O.sub.4+Y intercalation compound having a predetermined mean particle size and particle size distribution for 4 V secondary lithium and lithium ion cells is provided. The method comprises mixing at least one manganese compound having a predetermined particle size distribution with at least one lithium compound wherein the manganese compound has a mean particle size of between about 1 and 15 microns and the mean particle size of the lithium compound is less than that of the manganese compound. The mixture is then fired in one or more firing steps within specific temperature ranges to form the Li.sub.1+X Mn.sub.2-X O.sub.4+Y intercalation compound. Preferably, at least one firing step is at a temperature of between about 700.degree. C. and 900.degree. C. The Li.sub.1+X Mn.sub.2-X O.sub.

Abstract: An apparatus and a process are disclosed making it possible to mount, without disadvantages, relatively hard particles, such as diamond dust and the like, on wire-like base material in such a way that the diamond dust is not damaged, wherein any desired coating, that is, especially also a coating coherent over the length of the wire, can be produced. This coating is at least macroscopically homogeneous in character. In such a process for the application of relatively hard particles to a circular wire-like form or a wire-like form without longitudinal edges, for the purpose of producing a plain or multiple saw, the form is coated under pressure with the aid of a surface of two rolls. This surface is at least partially provided with the particles to be applied. The wire-like form is turned about its longitudinal axis during this process. The form must be present in the straight, that is stretched, condition.

Abstract: A wire saw which is simple in construction and which, in practice, can effortlessly handle workpieces of any dimensions, yet requires relatively little space, in particular with diamond chip studding on the reciprocating part of the saw wire; the wire saw includes two reels provided with thread-like grooves and arranged on respective shafts for receiving the finite saw wire whereby each reel is operatively connected with a rotary drive in such a manner as to assure synchronization in the direction of rotation and rotational speed; the sawing place is thereby located between the reels.

Abstract: An apparatus for supporting a weapon system upon a combat vehicle, at which vehicle the weapon system is arranged upon a platform and is mounted to be rotatable about an essentially vertical axis. Between the chassis frame of the vehicle and the platform there is arranged an intermediate frame which is operatively connected, with the chassis frame, by means of three support devices arranged in spaced relationship from one another. The intermediate frame, together with the platform carrying the weapon system, viewed in the direction of travel of the vehicle, can be lowered and/or raised in relation to the chassis frame at least at one side. The individual support devices of the three point-support arrangement are structured for handling angular and displacement movements.