Abstract: The present application provides a bottle. The bottle may include a label panel in the form of a ripple panel having a number of undulating waves and a number of troughs therebetween and a ribbed panel having a number of ribs and a number of lands therebetween.

Abstract: In an optical carrier injection method, a pulsed optical beam having pulse duration of 900 fs or lower is applied on a backside of a substrate of an integrated circuit (IC) wafer or chip, and is focused at a focal point in an active layer on a frontside of the substrate. Photons of the optical beam are absorbed at the focal point by nonlinear optical interaction(s) to inject carriers. The pulsed optical beam may be applied using a fiber laser in which the fiber is doped with Yb and/or Er. An output signal may be measured, comprising an electrical signal or a light output signal produced by the IC wafer or chip in response to the injected carriers. By repeating the applying, focusing, and measuring over a grid of focal points in the active layer, an image of the IC wafer or chip may be generated.

Abstract: In an optical carrier injection method, a pulsed optical beam having pulse duration of 900 fs or lower is applied on a backside of a substrate of an integrated circuit (IC) wafer or chip, and is focused at a focal point in an active layer on a frontside of the substrate. Photons of the optical beam are absorbed at the focal point by nonlinear optical interaction(s) to inject carriers. The pulsed optical beam may be applied using a fiber laser in which the fiber is doped with Yb and/or Er. An output signal may be measured, comprising an electrical signal or a light output signal produced by the IC wafer or chip in response to the injected carriers. By repeating the applying, focusing, and measuring over a grid of focal points in the active layer, an image of the IC wafer or chip may be generated.

Abstract: Electrosurgical systems and components thereof configured to deliver RF energy to a target site of a human or other animal patient with selectable RF energy delivery profiles, temperature sensors and controls, and/or electrodes configured to more uniformly or effectively delivery energy to target tissue.

Abstract: To validate an integrated circuit (IC), the IC is imaged by scanning an optical beam over the IC to optically inject carriers and measuring an output signal generated by the IC in response to the injected optical carriers. A comparison between the image of the IC and a reference image is computed, and suspect regions of the IC are identified based on the comparison. The reference image may be an image of a reference IC. In another approach, images of training ICs are acquired, and a deep learning algorithm is trained to transform corresponding training IC layouts to the images of the training ICs. The trained deep learning algorithm then transforms a layout of the IC to generate the reference image. The comparison may be computed by computing an error metric for each region corresponding to a standard cell in the reference image.

Abstract: Electrosurgical systems and components thereof configured to deliver RF energy to a target site of a human or other animal patient with selectable RF energy delivery profiles, temperature sensors and controls, and/or electrodes configured to more uniformly or effectively delivery energy to target tissue.

Abstract: In an approach to inspecting integrated circuits, a system includes a first detection system and a second detection system for measuring electroluminescent (EL) images from a device under test (DUT); and a controller. The controller is configured to: measure EL emissions from the DUT with the first and the second detection systems to obtain a first and a second EL test data; compare the first and the second EL test data to a reference model of a reference device, the reference model developed based on measured EL reference data, synthetic EL reference data, or a combination thereof obtained from the reference device or a reference design of the reference device; and determine whether the DUT is in accordance with the reference device, based at least in part on the comparison of the first and the second EL test data to the reference model of the reference device.

Abstract: In an imaging method, a focal point of a focused optical beam is sequentially mechanically positioned at coarse locations in or on an integrated circuit (IC) wafer or chip. At each coarse location, a two-dimensional (2D) image or mapping tile is acquired by steering the focal point to fine locations on or in the IC wafer or chip using electronic beam steering and, with the focal point positioned at each fine location, acquiring an output signal produced in response to an electrical charge that is optically injected into the IC wafer or chip at the fine location by the focused optical beam. The 2D image or mapping tiles are combined, including stitching together overlapping 2D image or mapping tiles, to generate an image or mapping of the IC wafer or chip. The electronic beam steering may be performed using a galvo mirror. The set of coarse locations may span a three-dimensional (3D) volume.

Abstract: In an optical carrier injection method, a pulsed optical beam having pulse duration of 900 fs or lower is applied on a backside of a substrate of an integrated circuit (IC) wafer or chip, and is focused at a focal point in an active layer on a frontside of the substrate. Photons of the optical beam are absorbed at the focal point by nonlinear optical interaction(s) to inject carriers. The pulsed optical beam may be applied using a fiber laser in which the fiber is doped with Yb and/or Er. An output signal may be measured, comprising an electrical signal or a light output signal produced by the IC wafer or chip in response to the injected carriers. By repeating the applying, focusing, and measuring over a grid of focal points in the active layer, an image of the IC wafer or chip may be generated.

Abstract: Disclosed herein is a worksite evaluation system for evaluating a plurality of users in a worksite comprising a plurality of data capture devices and an activity determination system configured to determine activity data of a user in dependence on the user's user data, wherein the activity determination system determines the activity data by using an activity classification algorithm, wherein the activity classification algorithm is trained to recognise a plurality of specific movement signatures of a user's head, with each specific movement signature corresponding to a different activity being performed. Each data capture device is disposed within a respective helmet for wearing by a respective user, wherein each data capture device is configured to obtain user data.

Abstract: The invention provides apparatus (410) suitable for use with a display unit (12). The apparatus (410) includes conveyor means which in one embodiment has a frame (448) with runners (450). An object (422) can be conveyed in a first direction from a first location (426) in the display unit (10) to a second location (428). Object (422) is suspended from runner (450) and movable between first location (426) and second location (428), using a pulley system activated via a handle (52). In another embodiment, the conveyor means may include a conveyor belt (24) driven by wheels (32) connected to a motor.

Abstract: In part, the disclosure relates to a method of cosmetic tissue treatment. The method includes disposing a treatment applicator comprising an electrode array comprising a plurality of needles on a portion of tissue such that a region of the electrode array contacts the portion of tissue, wherein each needle is an electrode in electrical communication with a control system; applying a pulse of radio frequency (RF) energy to the portion of tissue through the electrode array; measuring impedance of electrode array over time; detecting a drop in the measured impedance while electrode array is in contact with the portion of tissue; and upon detection of the reduction in impedance by a threshold value, terminating application of the pulse of RF energy after a treatment time period.

Abstract: Systems and methods utilizing RF energy to treat a patient's skin or other target tissues are provided herein. In various aspects, the methods and systems described herein can provide a RF-based treatment in which RF energy can be selectively controlled to facilitate heating uniformity during one or more of body sculpting treatment (lipolysis), skin tightening treatment (laxity improvement), cellulite treatment, all by way of non-limiting examples. In various aspects, the systems may include a flexible applicator comprising a plurality of layers, the plurality of layers comprises a first dielectric layer, a second dielectric layer, and a conductive layer, wherein the first dielectric layer and the second dielectric layer sandwich the conductive layer, the plurality of layers define a plurality of kerfs, an inner region and N regions extending from the inner region, wherein the plurality of kerfs divide the applicator into N regions.