Abstract: Systems and methods to validate RFID counts may be provided. A business may affix temporary or permanent location tags with barcodes throughout an area to be counted, and the location tags may then be recorded. Manual counters may perform a piece count of items associated with each location tag. RFID counters may perform an RFID read of items associated with each location tag. All RFID reads may be associated with their most likely location tag. The manual piece count may be compared to the total of RFID tags assigned to each location tag. Locations may be rejected where the totals do not match. Locations rejected by the manual piece count comparison may then be barcode scanned and compared to the RFID reads for each location tag required to be barcode scanned. Resolution may be performed for locations where the barcode item counts do not match the RFID item counts.

Abstract: The invention includes a novel oscillating display device, system, and assembly configured to be mounted to an external surface and allow dynamic oscillation movement of a personalized display in response to an external force, such as air flow generated by the movement of a vehicle, while maintaining the display in an approximately horizontal position relative to an external viewer. The oscillating display of the invention may further include one or more marketing messages or advertisements to be displayed to a viewer.

Abstract: An electronic flight assistant device has a first processor coupled to a firmware memory containing machine readable instructions executable by the processor (Firmware) and a random access (RAM) memory; an electronic camera coupled to the processor; a visible-wavelength laser adapted to be gated and scanned by the processor; a switchable cockpit light; at least one digital radio coupled to the processor; and a housing containing the processor, electronic camera, laser, digital radio, and cockpit light; the firmware configured to perform optical reading of cockpit instruments, to determine error conditions, and to scan the laser to provide indications to a pilot of error conditions.

Abstract: A skin-mountable medical device having a mounting plate having a bottom side attachable to the skin of a user and a medical module, in particular, an analyte sensing device or a drug administration pump. A snap connector releasably attaches the medical module on the upper side of the mounting plate. The snap connector has a release flap that can be actuated by the user to detach the medical module, and the release flap projects outwardly from the mounting plate and at its bottom side maintains a clearance to avoid an interfering skin contact in use.

Abstract: A control augmentation system for high aspect ratio aircraft has aileron/flaperon and throttle position sensors; spoiler and flap controls; a mode switch with manual, and landing modes; and a controller driving left and right spoiler and flap servos, the controller including at least one processor with memory containing firmware configured to: when the mode switch is in manual mode, drive both spoiler servos to a symmetrical position according to the spoiler control; when the mode switch is in landing mode, drive the left spoiler to a position dependent on aileron and throttle position, and the right spoiler to a position dependent on aileron and throttle position, the left and right spoiler positions differing whenever ailerons are not centered, and an average of spoiler positions is more fully deployed when the throttle position is at a low-power setting than when the throttle position is at a high-power setting.

Abstract: The method comprising attaching a 3D sensor (20) on a top part of the container (10) in a position (P) and with an orientation (O) such that its field of view (FOV) is oriented towards the content (11) stored in the container (10); acquiring, by the 3D sensor (20), a depth map (DM); and computing, by a computing unit, a 3D surface model by processing said acquired depth map (DM) and using said given position (P), orientation (O) and field of view (FOV), and a 3D level model by removing from the computed 3D surface model the points corresponding to the interior walls of the container (10), using a 3D function that searches the intersection or matching between the 3D surface model and the shape of the container (S), and filling in the missing points corresponding to the content (11) that falls out of the field of view (FOV) of the 3D sensor (20).

Abstract: A control augmentation system for high aspect ratio aircraft has aileron/flaperon and throttle position sensors; spoiler and flap controls; a mode switch with manual, and landing modes; and a controller driving left and right spoiler and flap servos, the controller including at least one processor with memory containing firmware configured to: when the mode switch is in manual mode, drive both spoiler servos to a symmetrical position according to the spoiler control; when the mode switch is in landing mode, drive the left spoiler to a position dependent on aileron and throttle position, and the right spoiler to a position dependent on aileron and throttle position, the left and right spoiler positions differing whenever ailerons are not centered, and an average of spoiler positions is more fully deployed when the throttle position is at a low-power setting than when the throttle position is at a high-power setting.

Abstract: The method comprising attaching a 3D sensor (20) on a top part of the container (10) in a position (P) and with an orientation (O) such that its field of view (FOV) is oriented towards the content (11) stored in the container (10); acquiring, by the 3D sensor (20), a depth map (DM); and computing, by a computing unit, a 3D surface model by processing said acquired depth map (DM) and using said given position (P), orientation (O) and field of view (FOV), and a 3D level model by removing from the computed 3D surface model the points corresponding to the interior walls of the container (10), using a 3D function that searches the intersection or matching between the 3D surface model and the shape of the container (S), and filling in the missing points corresponding to the content (11) that falls out of the field of view (FOV) of the 3D sensor (20).

Abstract: A control augmentation system for high aspect ratio aircraft has aileron/flaperon and throttle position sensors; spoiler and flap controls; a mode switch with manual, and landing modes; and a controller driving left and right spoiler and flap servos, the controller including at least one processor with memory containing firmware configured to: when the mode switch is in manual mode, drive both spoiler servos to a symmetrical position according to the spoiler control; when the mode switch is in landing mode, drive the left spoiler to a position dependent on aileron and throttle position, and the right spoiler to a position dependent on aileron and throttle position, the left and right spoiler positions differing whenever ailerons are not centered, and an average of spoiler positions is more fully deployed when the throttle position is at a low-power setting than when the throttle position is at a high-power setting.

Abstract: A method of co-functionalizing single-walled carbon nanotubes for gas sensors, which includes the steps of: fabricating single-walled carbon nanotube interconnects; synthesizing tin oxide onto the single-walled carbon nanotube interconnects; and synthesizing metal nanoparticles onto the tin oxide coated single-walled carbon nanotube interconnects.

Abstract: The present invention relates to the use, for affinity purification of an antibody or an fragment of an antibody, of a ligand-substituted matrix comprising a support material and at least one ligand covalently bonded to the support material, the ligand being represented by formula (I) L-(Sp)v-Ar1-Am-Ar2 ??(I) wherein L, SP, Ar1, AM, Ar2 and v are defined herein.

Abstract: The present invention relates to the use, for affinity purification of an antibody or an fragment of an antibody, of a ligand-substituted matrix comprising a support material and at least one ligand covalently bonded to the support material, the ligand being represented by formula (I) L-(Sp)v-Ar1—Am—Ar2?? (I) wherein L, SP, Ar1, AM, Ar2 and v are defined herein.

Abstract: The present invention relates to the use for affinity purification of an antibody or a fragment of an antibody, of a ligand-substituted matrix comprising a support material and at least one ligand covalently bonded to the support material.

Abstract: A control augmentation system for high aspect ratio aircraft has aileron/flaperon and throttle position sensors; spoiler and flap controls; a mode switch with manual, and landing modes; and a controller driving left and right spoiler and flap servos, the controller including at least one processor with memory containing firmware configured to: when the mode switch is in manual mode, drive both spoiler servos to a symmetrical position according to the spoiler control; when the mode switch is in landing mode, drive the left spoiler to a position dependent on aileron and throttle position, and the right spoiler to a position dependent on aileron and throttle position, the left and right spoiler positions differing whenever ailerons are not centered, and an average of spoiler positions is more fully deployed when the throttle position is at a low-power setting than when the throttle position is at a high-power setting.

Abstract: A method of co-functionalizing single-walled carbon nanotubes for gas sensors, which includes the steps of: fabricating single-walled carbon nanotube interconnects; synthesizing tin oxide onto the single-walled carbon nanotube interconnects; and synthesizing metal nanoparticles onto the tin oxide coated single-walled carbon nanotube interconnects.

Abstract: A method of co-functionalizing single-walled carbon nanotubes for gas sensors, which includes the steps of: fabricating single-walled carbon nanotube interconnects; synthesizing tin oxide onto the single-walled carbon nanotube interconnects; and synthesizing metal nanoparticles onto the tin oxide coated single-walled carbon nanotube interconnects.

Abstract: The present invention relates to the use, for affinity purification of an antibody or an fragment of an antibody, of a ligand-substituted matrix comprising a support material and at least one ligand covalently bonded to the support material, the ligand being represented by formula (I) L-(Sp)v-Ar1—Am—Ar2??(I) wherein L, SP, Ar1, AM, Ar2 and v are defined herein.

Abstract: A medical device for carrying out at least one medical function. The medical device comprises at least one control part, which can be applied to a body surface of a user, and at least one functional element, which can be inserted into a body tissue of the user at at least one insertion site. The functional element can be connected to the control part. The functional element is designed to carry out at least one medical function. The control part has at least one base part with at least one supporting surface, which faces the body surface. The base part has at least one collection channel for collecting bodily fluid emerging from the insertion site.

Abstract: A medical device kit includes a medical instrument with a first connector. The first connector includes at least one first electrical connection. The first connector further includes a sealing cavity at least partially surrounding the at least one first electrical connection. The sealing cavity includes a sealing surface and a wedging surface. The kit includes a sealing cap having a sealing tube with an inner cavity and a flexible tip region. The wedging surface is operable for forcing the flexible tip against the sealing surface to form a flexible tip seal that seals the at least one first electrical connection within the sealing tube.