Abstract:
A method for sequencing loads in an automated load-distribution system having k sources with k≥2; at least one destination; k FIFO-type source buffer devices, each receiving loads from one of the k sources; a collector collecting the loads coming from the k source buffer devices and transporting them to the at least one destination. The collector has k successive nodes each collecting the loads coming from one of the source buffer devices. The control system processes customer orders listing loads for a given destination and being associated with a sequential order number of destination. The control system: builds a collection list containing n loads to be collected and reducing a disorder of the n loads relative to a rising order of the sequential order numbers of destination; and controlling the collector and the source buffer devices to collect loads on the collector in compliance with the collection list.
Abstract:
Method for merging, within a logistical warehouse, k incoming flows of payloads, transported respectively by k FIFO conveyor lanes ai with i∈{1, . . . , k} into one outgoing flow of payloads transported by a collector conveyor. The k lanes are distributed along the collector and numbered a1 to ak. Δi is a time-related distance between the lanes a1 and ak. A control system obtains a set L having n payloads distributed on the k lanes and having to be injected into the collector to form an exit sequence; computes a date t0 at which the first payload σ1 of the exit sequence σ passes in front of the lane ak; and computes n dates of injection of the n payloads into the collector, as a function of t0; and commands the collector and the k alleys, for an injection of the n payloads into the collector in compliance with the injection dates.
Abstract:
An automatic locker device configured for a distribution of goods includes at least one storage area for the storage of loads including or formed by the goods, at least one retrieval point for the retrieval of the goods, and a handling device. The retrieval point includes a box having faces that are closed except for one open lateral face, having a first aperture oriented towards the exterior of the device, and an open lower face having a second aperture. The handling device is configured to shift one of the loads from the storage area towards the retrieval point and the vertically shift the load towards or through the second aperture of the open lower face, up to a height making it possible, through the first aperture of the open lateral face, to make available at least one of the goods included in or forming said load.
Abstract:
The present disclosure relates to the field of photographic technology, and particularly relates to a multi-angle camera supporting device. The multi-angle camera supporting device includes a support body, wherein a bottom of the support body is provided with a bottom supporting plane and oblique supporting planes in a side direction of the bottom supporting plane. The bottom supporting plane and the oblique supporting planes in the side direction of the bottom supporting plane are arranged at the bottom of the support body, the bottom supporting plane or the oblique supporting plane is used as a supporting contact surface to achieve stable placement in different angles, the camera supporting device equipped with the camera can be conveniently and quickly placed on the ground, a desktop and other platforms for shooting in a variety of pitch angles, and the camera supporting device is simple to operate, portable and applicable to shooting in special environments.
Abstract:
A system is proposed for putting boats on hold when they are afloat on a water body after they have been launched and/or before they are hauled out of the water. The system for putting on hold includes: a floating device, having a central floating element and secondary elements extending from the central floating element. Each secondary element being associated with a reception place and having at least one point for driving, by thrust or traction, a boat positioned in an associated reception place. A system for moving is adapted to moving the secondary elements around the central floating element and, via the points for driving, moving the boats that are positioned in the reception places.
Abstract:
Aspects of the present invention relate to methods and compositions for the detection and/or quantification of S. aureus from a sample, as well as methods and compositions useful for the detection and/or quantification of S. aureus and MRSA in a single assay. Embodiments include nucleic acids that hybridize to S. aureus-specific nuc sequences and MREJ sequences.
Abstract:
Provided is a method of fabrication of a blooming control structure for an imager. The structure is produced in a semiconductor substrate in which is configured an electrical charge collection region. The electrical charge collection region is configured to accumulate electrical charge that is photogenerated in the substrate, up to a characteristic charge collection capacity. A blooming drain region is configured in the substrate laterally spaced from the charge collection region. The blooming drain region includes an extended path of a conductivity type and level that are selected for conducting charge in excess of the characteristic charge collection capacity away from the charge collection region. A blooming barrier region is configured in the substrate to be adjacent to and laterally spacing the charge collection and blooming drain regions by a blooming barrier width. This barrier width corresponds to an acute blooming barrier impurity implantation angle with the substrate. The blooming barrier region is of a conductivity type and level that is selected based on the blooming barrier width to produce a corresponding electrical potential barrier between the charge collection and blooming drain regions. The blooming barrier regions of the structure are very precisely defined by the selected acute blooming barrier impurity implantation angle, and optionally in addition by a rotation of the blooming barrier impurity implantation, as well as a non-vertical sidewall profile of the an impurity implantation masking layer.
Abstract:
The system uses a shrink film covering all the products (12) arranged inside a cardboard box (1) and holding these products against one another and also against the base (2) of the box. At least two heat-shrinkable sheets (9, 10) are attached, by one of their edges, in the region of the join between the base (2) of the box and the sides (4) of the lateral band (3) of this box. An additional heat-shrinkable sheet (14), supplied at the upper level of the lateral band (3) or of the products (12), is joined by welding to the previous sheets (9, 10) in order to form a single film that is shrunk over the products (12). A heat-protection sheet (13) may be inserted between this film and the products (12). The invention applies to packaging for the preparation and dispatch of product orders.
Abstract:
A zoom control mechanism includes a context display for displaying a representation of a data set, a zoom display for displaying a representation of a zoom interval within the data set, a context indicator that indicates a start point or an end point of a zoom interval within a context display, and a zoom indicator, corresponding to the context indicator, that indicates the start point or end point of the zoom interval within the zoom display. The zoom interval is updated according to user selection and movement of the context indicator or the zoom indicator to a new location within the context display and the zoom display, respectively.
Abstract:
Charge integration is selectively interrupted in a semiconductor imager with thinned substrate, by modulating the electric field normal to its back-illuminated surface. This suppresses smear generated during field transfer in certain types of imager when exposed to high-energy images, for example. The thinned substrate is cemented with an electrically insulating epoxy to a glass backing plate bearing a transparent electrode, the potential on which is varied to modulate the drift field.