Abstract: The present disclosure provides three-dimensional (3D) printing systems, apparatuses, software, and methods for the production of at least one requested 3D object. The 3D printer includes a material conveyance system, filtering system, and/or an unpacking station. The material conveyance system may transport pre-transformed material (e.g., powder) against gravity. The 3D printing described herein facilitated reducing interruptions of (e.g., providing non interrupted) (ii) material recycling, and/or (i) material dispensing through a component of the 3D printer such as a layer dispenser. The material conveyance system may operate above ambient pressure, e.g., while performing a suction operation. The present disclosure provides three-dimensional (3D) printing processes, apparatuses, software, and systems for controlling and/or treating gas and gas borne debris in an atmosphere of a 3D printer.

Abstract: Various implementations provide a view of a 3D environment including a portal for viewing a stereo item (e.g., a photo or video) positioned a distance behind the portal. One or more visual effects are provided based on texture of one or more portions of the stereo item, e.g., texture at cutoff or visible edges of the stereo item. The effects change the appearance of the stereo item or the portal itself, e.g., improving visual comfort issues by minimizing window violations or otherwise enhancing the viewing experience. Various implementations provide a view of a 3D environment including an immersive view of a stereo item without using portal. Such a visual effect may be provided to partially obscure the surrounding 3D environment.

Abstract: A system includes an electrical connection system configured to transmit electric power to a plurality of devices associated with a structure and a control system associated with the structure. The control system is configured to receive data indicative of a respective priority associated with the plurality of devices and operate the electrical connection system to control flow of electric power to the plurality of devices based on the data.

Abstract: A separating device of an optical testing unit for testing rotationally symmetrical test objects includes two corresponding pocket wheels, each having a plurality of pockets distributed uniformly over a circumference. The pocket wheels rotate synchronously in opposite directions about parallel axes in response to a drive. A continuous conveyor transports the test objects on a transporting plane. Depending on the geometry of the test objects, the distances between the respective pocket wheels and between the pocket wheels and the transporting plane are determined so that the test objects, which are fed via and accumulating section, are moved between the pocket wheels while being guided by two pockets of the two pocket wheels and are released by the two pockets downstream of an engagement section. Once released the test objects are accelerated to a higher transporting speed in an accelerating section of the continuous conveyor and are separated as a result.

Abstract: Data processing techniques are described to obtain user data previously collected when a user is requested to complete application forms associated with multiple servers. The application forms may include some fields that may be in common and that may request the same user data. For each application form requested by the user, the data processing techniques can identify and obtain the relevant previously collected data about the user for the application form. The application form for a product can have certain fields that may be pre-filled based on the relevant and/or non-confidential previously collected user data. The data processing techniques can also provide an estimate of the time that may be needed by the user to complete at least one application form so that the user can obtain a requested product.

Abstract: Hollow bodies which are closed on one side and which are cylindrical are sorted by a sorting device. The hollow bodies have an end-side opening, a base surface situated opposite the opening and a shell surface extending between the base surface and the opening. The sorting device includes first nozzles arranged on an upper guide for conducting a first fluid flow in the direction of a lateral guide, and second nozzles arranged on a lower guide for conducting a second fluid flow in the direction of an outlet. Since the force of the fluid flow is several times greater if the fluid flow strikes a part of the shell surface of the hollow body through the end-side opening of the hollow body than if the fluid flow strikes the base surface of the hollow body from the outside, sorting of the hollow bodies is made possible.

Abstract: A device and method tests preforms that are rotationally symmetrical with respect to an axis of rotation during their conveyance along a conveyance path. The device and method tests only a statistically relevant number of produced preforms, thus allowing substantial reduction in the constructive complexity required for aligning the preforms prior to being tested. A certain number of preforms that have not been correctly aligned are allowed to continue along the conveyance path without being tested.

Abstract: A separating device of an optical testing unit for testing rotationally symmetrical test objects includes two corresponding pocket wheels, each having a plurality of pockets distributed uniformly over a circumference. The pocket wheels rotate synchronously in opposite directions about parallel axes in response to a drive. A continuous conveyor transports the test objects on a transporting plane. Depending on the geometry of the test objects, the distances between the respective pocket wheels and between the pocket wheels and the transporting plane are determined so that the test objects, which are fed via and accumulating section, are moved between the pocket wheels while being guided by two pockets of the two pocket wheels and are released by the two pockets downstream of an engagement section. Once released the test objects are accelerated to a higher transporting speed in an accelerating section of the continuous conveyor and are separated as a result.

Abstract: A method for the remote control of a function of a vehicle by a mobile operating device, involves enabling or disabling the function of the vehicle, such as an autonomous function for maneuvering into or out of a parking space, based on a sensed movement of the operating device. Enablement of the function requires that the sensed movement is a micromovement, a micromovement being a movement that is limited in the extent thereof and/or in the dynamics thereof.

Abstract: A method for the remote control of a function of a vehicle by a mobile operating device, involves enabling or disabling the function of the vehicle, such as an autonomous function for maneuvering into or out of a parking space, based on a sensed movement of the operating device. Enablement of the function requires that the sensed movement is a micromovement, a micromovement being a movement that is limited in the extent thereof and/or in the dynamics thereof.

Abstract: A diverter assembly includes a tubing segment and one or more sleeve members disposed therein. The tubing segment includes apertures that are selectively alignable with apertures of an inner sleeve disposed within the tubing segment. The tubing segment includes a series of stops (e.g., shear pins) to arrest movement of the first sleeve within the bore of the tubing segment. A first one or more ball seats are included in the first sleeve such that deployment of a first ball and pressurization of the well above the first ball causes a first set of shear pins to fail, thereby allowing the first sleeve to slide downhole to cause apertures of the sleeve to align with apertures of the tubing segment, thereby causing fluid to flow to an annulus between the tubing segment and wellbore wall.

Abstract: Hollow bodies which are closed on one side and which are cylindrical are sorted by a sorting device. The hollow bodies have an end-side opening, a base surface situated opposite the opening and a shell surface extending between the base surface and the opening. The sorting device includes first nozzles arranged on an upper guide for conducting a first fluid flow in the direction of a lateral guide, and second nozzles arranged on a lower guide for conducting a second fluid flow in the direction of an outlet. Since the force of the fluid flow is several times greater if the fluid flow strikes a part of the shell surface of the hollow body through the end-side opening of the hollow body than if the fluid flow strikes the base surface of the hollow body from the outside, sorting of the hollow bodies is made possible.

Abstract: A diverter assembly includes a tubing segment and one or more sleeve members disposed therein. The tubing segment includes apertures that are selectively alignable with apertures of an inner sleeve disposed within the tubing segment. The tubing segment includes a series of stops (e.g., shear pins) to arrest movement of the first sleeve within the bore of the tubing segment. A first one or more ball seats are included in the first sleeve such that deployment of a first ball and pressurization of the well above the first ball causes a first set of shear pins to fail, thereby allowing the first sleeve to slide downhole to cause apertures of the sleeve to align with apertures of the tubing segment, thereby causing fluid to flow to an annulus between the tubing segment and wellbore wall.

Abstract: A driveshaft assembly having two CV joints and an intermediate shaft. One of the CV joints (11) includes an outer joint part (12) with first ball tracks (14), an inner joint part (17) with second ball tracks (18), and balls (19) held in a common plane by a cage (20). First and second angles of intersection of the ball tracks (14, 18) of a pair of tracks are identical in size and are positioned symmetrically relative to the joint axis. The ball cage (20) is axially fixed in the constant velocity joint. The intermediate shaft includes a longitudinal plunging unit (41) having a sleeve (42) with first ball grooves (43) which extend axially, a journal (44) with second ball grooves (45) which extend axially, balls (46) which are held in a cage (47) in groups in pairs of the first and second ball grooves (43, 45).

Abstract: A driveshaft assembly having two CV joints and an intermediate shaft. One of the CV joints (11) includes an outer joint part (12) with first ball tracks (14), an inner joint part (17) with second ball tracks (18), and balls (19) held in a common plane by a cage (20). First and second angles of intersection of the ball tracks (14, 18) of a pair of tracks are identical in size and are positioned symmetrically relative to the joint axis. The ball cage (20) is axially fixed in the constant velocity joint. The intermediate shaft includes a longitudinal plunging unit (41) having a sleeve (42) with first ball grooves (43) which extend axially, a journal (44) with second ball grooves (45) which extend axially, balls (46) which are held in a cage (47) in groups in pairs of the first and second ball grooves (43, 45).

Abstract: The present invention relates to thieno[2,3-d]-pyrimidine compounds having fungicidal activity.

Abstract: The present invention relates to triazine derivatives, especially 4-(2-aminopyridin-4-yl)-N-phenyl-1,3,5-triazin-2-amine derivatives and their use as fungicidal compositions. Novel compounds showing fungicidal activity are disclosed and further, novel compositions containing 4-(2-aminopyridin-4-yl)-N-phenyl-1,3,5-triazin-2-amine derivatives can be used in fungicide applications.

Abstract: A driveshaft assembly having two CV joints and an intermediate shaft. One of the CV joints (11) includes an outer joint part (12) with first ball tracks (14), an inner joint part (17) with second ball tracks (18), and balls (19) held in a common plane by a cage (20). First and second angles of intersection of the ball tracks (14, 18) of a pair of tracks are identical in size and are positioned symmetrically relative to the joint axis. The ball cage (20) is axially fixed in the constant velocity joint. The intermediate shaft includes a longitudinal plunging unit (41) having a sleeve (42) with first ball grooves (43) which extend axially, a journal (44) with second ball grooves (45) which extend axially, balls (46) which are held in a cage (47) in groups in pairs of the first and second ball grooves (43, 45).

Abstract: A method of and device for forming a tripode star for a tripode joint, which tripode star comprises an annular hub member and three arms which adjoin the hub member, extend radially relative to a longitudinal axis (A) and form faces of spherical portions each positioned circumferentially relative to arm axes (Z) of the arms, wherein, in a first production stage, the hub member and the three arms are preformed from a blank by means of a first tool divided in a plane (E1) containing the arm axes (Z) and wherein, in a second production stage, pairs of burr-free faces of spherical portions positioned opposite one another in the circumferential direction relative to the hub member (12) are formed on to the preformed arms by means of a second tool divided in planes extending through the longitudinal axis (A) of the hub member and through the arm axes (Z).

Abstract: A method of and device for forming a tripode star for a tripode joint, which tripode star comprises an annular hub member and three arms which adjoin the hub member, extend radially relative to a longitudinal axis (A) and form faces of spherical portions each positioned circumferentially relative to arm axes (Z) of the arms, wherein, in a first production stage, the hub member and the three arms are preformed from a blank by means of a first tool divided in a plane (E1) containing the arm axes (Z) and wherein, in a second production stage, pairs of burr-free faces of spherical portions positioned opposite one another in the circumferential direction relative to the hub member (12) are formed on to the preformed arms by means of a second tool divided in planes extending through the longitudinal axis (A) of the hub member and through the arm axes (Z).