Abstract: Techniques to provide recommended data visualizations or analytical operations are disclosed. In various embodiments, an indication is received of a set of data for which a data visualization or analytical operation is to be provided. The set of data is analyzed to determine one or more data attributes of the set of data. A data visualization or analytical method to be recommended is selected for the set of data, based at least in part on the determined one or more data attributes.

Abstract: Techniques to provide recommended data visualizations or analytical operations are disclosed. In various embodiments, an indication is received of a set of data for which a data visualization or analytical operation is to be provided. The set of data is analyzed to determine one or more data attributes of the set of data. A data visualization or analytical method to be recommended is selected for the set of data, based at least in part on the determined one or more data attributes.

Abstract: A spinal cord device comprises a body formed of a biocompatible, biodegradable matrix and includes a proximal cranial surface and a distal caudal surface for connection to two ends of an injured spinal cord after removal of an injured section. The body has two sets of through channels A, B, C, D, E and F with openings in the cranial surface and the caudal surface for connection of descending motor pathways from cranial white to caudal gray matter and ascending sensory pathways from caudal white to cranial gray matter of the two spinal cord ends. The device has a transversal diameter (Dt) within a range of from 9 to 13 mm, an anteroposterior diameter (Da) and a length (L), and the ratio anteroposterior diameter/transverse diameter (RAPT) is in a range of from 0.5 to 1.0. Kits employ a plurality of such devices.

Abstract: A spinal cord device comprises a body formed of a biocompatible, biodegradable matrix. The body includes proximal, cranial and distal, caudal surfaces for connection to two ends of an injured spinal cord after removal of an injured section and has through channels with openings in the cranial and caudal surfaces for connection of descending motor pathways and ascending sensory pathways. The device has a transversal diameter (Dt), an anteroposterior diameter (Da) and a length (L), wherein Dt is from 9 to 13 mm and the ratio anteroposterior diameter/transverse diameter (RAPT) is from 0.5 to 1.0 and wherein the position and dimension of the channels, RAPT value, and cranial surface area and/or caudal surface area of the device are adopted to the shape, level, dimension of white and gray matter, and size of the injured spinal cord for optimal connection between spinal cord tracts. Kits and methods employ such devices.

Abstract: A method of manufacturing a nerve regeneration device for treating a spinal cord injury comprises providing a mould comprising a bottom plate, a top plate and a centre part, each having a number of holes corresponding to points in the injured spinal cord where nerves should be regenerated, and the centre part having a channel therethrough, placing first flexible elongate structures in the channels, each structure exiting the mould through one hole in the top plate and a matching hole in the bottom plate, filling the mould with a biocompatible or biodegradable material to produce the device, and removing the device from the mould when ready.

Abstract: A spinal cord device comprises a body formed of a biocompatible, biodegradable matrix. The body includes proximal, cranial and distal, caudal surfaces for connection to two ends of an injured spinal cord after removal of an injured section and has through channels with openings in the cranial and caudal surfaces for connection of descending motor pathways and ascending sensory pathways. The device has a transversal diameter (Dt), an anteroposterior diameter (Da) and a length (L), wherein Dt is from 9 to 13 mm and the ratio anteroposterior diameter/transverse diameter (RAPT) is from 0.5 to 1.0 and wherein the position and dimension of the channels, RAPT value, and cranial surface area and/or caudal surface area of the device are adopted to the shape, level, dimension of white and gray matter, and size of the injured spinal cord for optimal connection between spinal cord tracts. Kits and methods employ such devices.

Abstract: A machine for slitting plane packaging blanks includes at least one rotatable slitting roller with at least one knife for producing a front edge slit and/or a rear edge slit in each packaging blank. The knife is sector-shaped, and defined by two knife end edges. A first knife portion adjacent a first knife end edge is adapted to cut the front edge slit out in a front edge of the blank. A second knife portion adjacent a second knife end edge is adapted to cut a rear edge slit out in a rear edge of the blank and rearwards through the rear edge while the blank is advanced through the machine at a uniform speed.

Abstract: A machine for raising planar articles (2), preferably made of cardboard, corrugated cardboard or plastics, in order to manufacture box-shaped or crate-shaped packaging. The machine comprises at least one main conveyor (16) for advancing the planar articles (2) one at a time and side forming means (8) for turning the side panels (5b) of the articles predominantly 90° upwards with respect to the bottom panel (4) of the article (2). Moreover, the machine is provided with transversely arranged end forming means (15) for turning the end panels (6a, 6b) of the articles substantially 90° upwards and optionally also turning the end portions (5b?, 5b?) of the side panels (5b) substantially 90° with respect to the remaining portion of the side panels. Finally, there are joining means (12, 20) for joining the side panels (5a, 5b) and the end panels (6a, 6b) of the articles. This provides a machine requiring less space than the known one but remaining very reliable.

Abstract: A machine for raising planar articles (2), preferably made of cardboard, corrugated cardboard or plastics, in order to manufacture box-shaped or crate-shaped packaging. The machine comprises at least one main conveyor (16) for advancing the planar articles (2) one at a time and side forming means (8) for turning the side panels (5b) of the articles predominantly 90° upwards with respect to the bottom panel (4) of the article (2). Moreover, the machine is provided with transversely arranged end forming means (15) for turning the end panels (6a, 6b) of the articles substantially 90° upwards and optionally also turning the end portions (5b?, 5b?) of the side panels (5b) substantially 90° with respect to the remaining portion of the side panels. Finally, there are joining means (12, 20) for joining the side panels (5a, 5b) and the end panels (6a, 6b) of the articles. This provides a machine requiring less space than the known one but remaining very reliable.

Abstract: A method and a mould for manufacturing a nerve regeneration device specifically adapted to an individual injury in the spinal cord are proposed, which will allow axons in the damaged area to regenerate and restore function. The resulting device can be adapted to a specific wound in order to ascertain an exact and reproducible anatomical positioning of the channels. The mould includes a base plate (25), a top plate (27) and a centre part (33), each of the base plate (25) and the top plate (27) having a number of holes corresponding to points in the injured spinal cord where nerves should be regenerated, and the centre part having a channel therethrough, arranged to receive a number of threads, each thread exiting the mould through one hole in the top plate (27) and a matching hole in the base plate (25).

Abstract: A machine for slitting plane packaging blanks (3) made of corrugated board. The machine includes a driving roller assembly (1?a, 1?b, 5?, 5?) for advancing the blanks and a rotatable slitting roller (7) with a knife (9) for producing a front edge slit (11) and/or a rear edge slit (13) in each packaging blank (3). The knife (9) is circular and defined by two knife edges (9a, 9b), said knife extending across a central angle (v) of max. 300° in such a manner that said knife presents a knife gap (19) between said knife edges.

Abstract: Narrow aisle truck that on each side includes two forward extending support legs, which each leg is provided with two support wheels. The two outer support wheels are displaced somewhat to the rear in relation to the inner support wheels, and, in the corner space outside the inner support wheels in front of the outer support wheels, lateral guide wheels are arranged.

Abstract: A milling tool includes a holder rotatable about an axis and carrying a plurality of cutting inserts at a forward end thereof. Each insert includes a plurality of main cutting edges, and secondary cutting edges disposed on protruding corners of the insert. Each main cutting insert has a clearance surface located therebehind considered with reference to a direction of rotation of the holder. Each clearance surface has surface portion defining a convex profile, the convex profile forming a crest or transition. During a cutting operation, one of the main cutting edges constitutes an axially forwardmost inactive cutting edge. The transition of the clearance surface associated with that inactive edge is disposed axially forwardly with respect to the inactive cutting edge to prevent the inactive cutting edge from impacting against a workpiece.

Abstract: Narrow aisle truck that on each side includes two forwards extending support legs (1, 2), which each are provided with two support wheels (4, 5). The two outer support wheels are displaced somewhat to the rear in relation to the inner ones and in the corner space outside the inner ones and in front of the outer support wheels lateral guide wheels (6) are arranged.

Abstract: A milling tool includes a holder rotatable about an axis and carrying a plurality of cutting inserts at a forward end thereof. Each insert includes a plurality of main cutting edges, and secondary cutting edges disposed on protruding corners of the insert. Each main cutting insert has a clearance surface located therebehind considered with reference to a direction of rotation of the holder. Each clearance surface has surface portion defining a convex profile, the convex profile forming a crest or transition. During a cutting operation, one of the main cutting edges constitutes an axially forwardmost inactive cutting edge. The transition of the clearance surface associated with that inactive edge is disposed axially forwardly with respect to the inactive cutting edge to prevent the inactive cutting edge from impacting against a workpiece.