Abstract: The present disclosure relates to peptidic compounds of Formula A, A-II, A-III, B, or C, or salt or solvate thereof, compositions thereof, and methods of use thereof. The compounds of the present disclosure are useful for targeting CXCR4 for purposes such as imaging and/or therapeutics.

Abstract: A mooring assembly includes: a mooring buoy having a central axis, an upper ring portion providing an upper abutment surface; a mooring structure including a cavity with a wall receiving the mooring buoy; and a buoy locking system near the cavity engaging with the upper ring portion for locking the mooring buoy to the turret mooring structure and including at least two locking devices attached to the mooring structure, each locking device having a locking dog connected to a force member for axial displacement and exerting an upward force on the upper abutment surface. The mooring buoy includes a lower abutment surface. The locking system includes an engagement member below the locking dog, engaging with the lower abutment surface and exerting a downward force. The buoy at positions axially above the upper abutment surface situated at an axial clearance from the cavity wall.

Abstract: Turret mooring system for receiving a mooring buoy, includes a turret mooring structure, and a buoy locking system for locking the mooring buoy, whereby the turret mooring system includes an intermediate connection member, which includes the buoy locking system. The intermediate connection member is rotatably suspended from the turret mooring structure. A method of mooring a vessel, including a turret mooring system, is described whereby the turret mooring system is arranged to receive the mooring buoy. The turret mooring system includes a turret mooring structure that is rotatably suspended from the vessel and an intermediate connection member that is rotatably suspended from the turret mooring structure. The method includes the steps of receiving the mooring buoy into the turret mooring system, locking the mooring buoy to the intermediate connection member, and rotating the intermediate connection member and the turret mooring structure with respect to each other.

Abstract: A mooring assembly includes: a mooring buoy having a central axis, an upper ring portion providing an upper abutment surface; a mooring structure including a cavity with a wall receiving the mooring buoy; and a buoy locking system near the cavity engaging with the upper ring portion for locking the mooring buoy to the turret mooring structure and including at least two locking devices attached to the mooring structure, each locking device having a locking dog connected to a force member for axial displacement and exerting an upward force on the upper abutment surface. The mooring buoy includes a lower abutment surface. The locking system includes an engagement member below the locking dog, engaging with the lower abutment surface and exerting a downward force. The buoy at positions axially above the upper abutment surface situated at an axial clearance from the cavity wall.

Abstract: Turret mooring system for receiving a mooring buoy, includes a turret mooring structure, and a buoy locking system for locking the mooring buoy, whereby the turret mooring system includes an intermediate connection member, which includes the buoy locking system. The intermediate connection member is rotatably suspended from the turret mooring structure. A method of mooring a vessel, including a turret mooring system, is described whereby the turret mooring system is arranged to receive the mooring buoy. The turret mooring system includes a turret mooring structure that is rotatably suspended from the vessel and an intermediate connection member that is rotatably suspended from the turret mooring structure. The method includes the steps of receiving the mooring buoy into the turret mooring system, locking the mooring buoy to the intermediate connection member, and rotating the intermediate connection member and the turret mooring structure with respect to each other.

Abstract: A method and apparatus for heat treating objects in an enclosure, where the enclosure has an inlet passage, an outlet passage, and a treatment zone. Gaseous first fluid is injected into the treatment zone and the objects to be treated are passed through the treatment zone. A second fluid, with a density greater than that of the first fluid, is injected near the inlet and outlet passages.

Abstract: The process is carried out in an enclosure (21) located in a surrounding gaseous fluid and defining an internal treatment zone (31). The enclosure (21) comprises an entrance passage (32) and an exit passage (33). This process comprises the following steps: (a) the treatment zone (31) is heated; (b) a gaseous treatment fluid is injected into the treatment zone (31); (c) the said objects (12) are transported through the said treatment zone (31); (d) a gaseous isolating fluid is injected in the vicinity of at least one of the said passages (32, 33). In step (d), the density of the said gaseous isolating fluid at the temperature found in the one or more of the said passages (32, 33) is greater than the density of the gaseous treatment fluid inside the oven. Applicable to the assembling of electronic boards by soldering.

Abstract: A process for the vacuum treatment of workpieces, includes loading the workpieces into a treatment facility, surface treating the workpieces in at least one vacuum station of the facility grouped as a station batch and controlling at least the timing of the process by a freely programmable process controller unit. At least two stations operating each on workpiece batches can be grouped as respective station batches and be different with respect to number of workpieces. The workpieces can be transported to and from the grouped stations. An embodiment of vacuum treatment system for such a process includes at least one vacuum treatment station for workpieces grouped as a station batch. A transport system supplies the vacuum station with workpieces. A process controller unit has an output operationally connected to a drive arrangement for the transport system. The unit controls operating timing of the treatment system and is freely programmable.

Abstract: The bearing, for coupling two items, comprises two rolling paths, running one in front of the other by the rolling of an interposed layer of a plurality of carrier balls which are free of any integrated mutual spacing structure and have a specific surface hardness, and it comprises a plurality of other, longitudinal spacing, balls which are interposed, free, between the carrier balls and have a surface hardness lower than the surface hardness of the carrier balls.

Abstract: A method of manufacturing workpieces, includes loading the workpieces into a treatment facility, surface treating the workpieces in at least one vacuum station of the facility grouped as a station batch and controlling at least the timing of the process by a freely programmable process controller unit. At least two stations operating each on workpiece batches can be grouped as respective station batches and be different with respect to number of workpieces. The workpieces can be transported to and from the grouped stations. An embodiment of vacuum treatment system for such a process includes at least one vacuum treatment station for workpieces grouped as a station batch. A transport system supplies the vacuum station with workpieces. A process controller unit has an output operationally connected to a drive arrangement for the transport system. The unit controls operating timing of the treatment system and is freely programmable.

Abstract: A process for the vacuum treatment of workpieces, includes loading the workpieces into a treatment facility, surface treating the workpieces in at least one vacuum station of the facility grouped as a station batch and controlling at least the timing of the process by a freely programmable process controller unit. At least two stations operating each on workpiece batches can be grouped as respective station batches and be different with respect to number of workpieces. The workpieces can be transported to and from the grouped stations. An embodiment of vacuum treatment system for such a process includes at least one vacuum treatment station for workpieces grouped as a station batch. A transport system supplies the vacuum station with workpieces. A process controller unit has an output operationally connected to a drive arrangement for the transport system. The unit controls operating timing of the treatment system and is freely programmable.

Abstract: A capacitively coupled RF plasma reactor allows treatment of large workpiece surfaces with an accurate control of ion bombardment onto the respective electrode surfaces and thus an adjacent workpiece, be it to a desired low or to a desired high level. The reactor includes a first and a second electrode arrangement mutually spaced and confining a plasma reaction volume, at lest one of the electrode arrangements comprising electrically mutually isolated sub-electrodes, a first group of the sub-electrodes being commonly connected to a first electric input, and a second group of the sub-electrodes being commonly connected to a second electric input. The reactor thus substitutes at least one of the two customarily used reactor electrodes by an array of sub-electrodes which, by way of their respective first and second electric inputs, may be independently and thus differently electrically operated, usually but not exclusively with RF voltages.

Abstract: A process for the vacuum treatment of workpieces, includes loading the workpieces into a treatment facility, surface treating the workpieces in at least one vacuum station of the facility grouped as a station batch and controlling at least the timing of the process by a freely programmable process controller unit. At least two stations operating each on workpiece batches can be grouped as respective station batches and be different with respect to number of workpieces. The workpieces can be transported to and from the grouped stations. An embodiment of vacuum treatment system for such a process includes at least one vacuum treatment station for workpieces grouped as a station batch. A transport system supplies the vacuum station with workpieces. A process controller unit has an output operationally connected to a drive arrangement for the transport system. The unit controls operating timing of the treatment system and is freely programmable.

Abstract: A capacitively coupled Rf plasma reactor and method in which first and second extended electrode arrangements are mutually and substantially constantly spaced and substantially enclose a plasma reaction volume within a reactor chamber. The first of the electrode arrangements is subdivided into electrically mutually isolated subelectrodes, and the second is a substrate carrier electrode for an extended substrate to be surface treated in the reactor. A first group of the subelectrodes is connected to a common first electric input, and a second group of the subelectrodes is commonly connected to a second electric input. The first and said second electric inputs being independent. Only one Rf signal generator providing an electric output is connected to both the first and second electric inputs via respective signal adjusting units to control ion bombardment on and along the flat substrate.