Display Configurations Research Articles

Pilots' Reactions to Different Types of Alerts When Using Head-Up Displays.

INTRODUCTION: The benefits of using head-up displays (HUDs) include reducing head-down time during critical flight phases, enhancing awareness of the external environment, and improving in-flight crew performance. However, the monochromatic nature of HUDs, increased head rotation, and longer gaze movement paths might affect pilots' reactions to different types of alerts.METHODS: Pilot workload and behavior differences were examined between HUD and head-down display (HDD) configurations in three alert scenarios. The study was carried out in an A320 flight simulator and 12 pilots participated.RESULTS: Except for one engine-on-fire scenario, pilot workload when using a HUD was significantly lower than using an HDD. In one engine-on-fire (3.98 s vs. 3.57 s) and one gear-disagree (5.42 s vs. 4.69 s) scenario, pilot response time to alerts using HUD was significantly longer than using an HDD. The angle deviations were significantly smaller when using HUDs in both go-around-under-crosswind (2.67° vs. 3.37°) and one engine-on-fire scenario (1.22° vs. 1.89°).DISCUSSION: The HUD is suitable for a lengthy process of manual flight control inputs, which not only reduces workload but also promotes control accuracy. For tasks that rely on automation, the benefits for workload become less obvious. In addition, head rotation and reorientation of attention adversely affected the response time to non-time-critical warnings and cautions. For instantaneous control with high precision requirements, HUDs did not demonstrate a significant advantage.Zheng Y, Lu Y, Jie Y, Fu S. Pilots' reactions to different types of alerts when using head-up displays. Aerosp Med Hum Perform. 2024; 95(9):688-694.

93‐3: Kerfed Pillar Platform for Deformable Double Curvature Display

A kerfed pillar platform is proposed for deformable double curvature displays, which is designed for a smooth transition between 2D and complex 3D shapes, like spheres and saddles, while maintaining structural integrity. The kerfs modify flexible substrate into the pillar‐island structure, which enhances substrate compressibility, preventing crumpling during 3D curve transformation. It exemplifies controlled deformation, adhering to the superposition principle, and enabling diverse display configurations. The proposed structure provides a new approach for next‐generation display applied for human‐machine interface and architectural design, advancing dynamic, free‐form displays.

P‐60: Automotive Dual Cell microZone™ LCD Gamma Control Algorithm

Consumer experience with high performing mobile device displays sets high expectations for the automotive market in contrast, color performance and brightness. OLED based displays continue to experience difficulties in penetrating the automotive display market primarily due to image burn at high luminance operation and high costs. The microZone™ LCD is an alternative display configuration that can meet the desirable properties of OLED displays while providing high luminance at high temperature operation without image burn in.

Evaluation of Display Configuration and Seat Orientation Considering Various Automated Driving Situations Using a Vehicle Simulator

Evaluation of Display Configuration and Seat Orientation Considering Various Automated Driving Situations Using a Vehicle Simulator

Pathologists light level preferences using the microscope—study to guide digital pathology display use

BackgroundCurrently, there is a paucity of guidelines relating to displays used for digital pathology making procurement decisions, and optimal display configuration, challenging.Experience suggests pathologists have personal preferences for brightness when using a conventional microscope which we hypothesized could be used as a predictor for display setup. MethodsWe conducted an online survey across six NHS hospitals, totalling 108 practicing pathologists, to capture brightness adjustment habits on both microscopes and displays.A convenience subsample of respondents was then invited to take part in a practical task to determine microscope brightness and display luminance preferences, in the normal working environment. A novel adaptation for a lightmeter was developed to directly measure the light output from the microscope eyepiece. ResultsThe survey (response rate 59% n=64) indicates 81% of respondents adjust the brightness on their microscope. In comparison, only 11% report adjusting their digital display. Display adjustments were more likely to be for visual comfort and ambient light compensation rather than for tissue factors, common for microscope adjustments. Part of this discrepancy relates to lack of knowledge of how to adjust displays and lack of guidance on whether this is safe; But, 66% felt that the ability to adjust the light on the display was important.Twenty consultants took part in the practical brightness assessment. Light preferences on the microscope showed no correlation with display preferences, except where a pathologist has a markedly brighter microscope light preference. All of the preferences in this cohort were for a display luminance of <500 cd/m2, with 90% preferring 350 cd/m2 or less. There was no correlation between these preferences and the ambient lighting in the room. ConclusionsWe conclude that microscope preferences can only be used to predict display luminance requirements where the microscope is being used at very high brightness levels. A display capable of a brightness of 500 cd/m2 should be suitable for almost all pathologists with 300 cd/m2 suitable for the majority. Although display luminance is not frequently changed by users, the ability to do so was felt to be important by the majority of respondents.Further work needs to be undertaken to establish the relationship between diagnostic performance, luminance preferences, and ambient lighting levels.

WAMS: A Flexible API for Visual Workspaces Across Multiple Surfaces

Applications that use multiple devices and surfaces provide new opportunities for innovative interaction -- but despite the wide variety of research that has been carried out on multi-surface systems, building these kinds of applications is still difficult. In particular, multi-surface apps that use interactive visual workspaces are complicated because current tools do not provide low-level access to a connected and interactive graphical canvas that is shown on different devices. This difficulty limits the explorations that designers and developers can carry out within the multi-surface design space. To address this problem, we have developed WAMS -- an open-source web-based toolkit that provides several programming abstractions for building visual-workspace applications across multiple surfaces. WAMS uses three main concepts -- a virtual visual workspace, views onto that workspace, and graphical workspace objects -- and provides support for connecting multiple devices, creating and manipulating objects, managing and laying out views, and handling events from multiple surfaces. WAMS simplifies the development of a wide variety of applications including composite display configurations, shared-workspace groupware, systems that place different UI elements onto different devices, and bring-your-own-device applications. We describe WAMS's main abstractions and concepts, provide several examples that show the breadth of the approach, and assess the toolkit in terms of effectiveness, coverage, extensibility, and integration with existing practices and tools.

Eyebox expansion with accurate hologram generation for wide-angle holographic near-eye display.

Small eyebox in wide-angle holographic near-eye display is a severe limitation for 3D visual immersion of the device. In this paper, an opto-numerical solution for extending the eyebox size in these types of devices is presented. The hardware part of our solution expands the eyebox by inserting a grating of frequency fg within a non-pupil forming display configuration. The grating multiplies eyebox, increasing the possible eye motion. The numerical part of our solution is an algorithm that enables proper coding of wide-angle holographic information for projecting correct object reconstruction at arbitrary eye position within the extended eyebox. The algorithm is developed through the employment of the phase-space representation, which facilitates the analysis of the holographic information and the impact of the diffraction grating in the wide-angle display system. It is shown that accurate encoding of the wavefront information components for the eyebox replicas is possible. In this way, the problem of missing or incorrect views in wide angle near-eye display with multiplied eyeboxes is efficiently solved. Moreover, this study investigates the space-frequency relation between the object and the eyebox and how the hologram information is shared between eyebox replicas. The functionality of our solution is tested experimentally in an augmented reality holographic near-eye display that has maximum field of view of 25.89°. Obtained optical reconstructions demonstrate that correct object view is obtained for arbitrary eye position within extended eyebox.

59‐2: Diffuse Reflected Light Control for Reflective Tablet Display by Combining Use of Anisotropic and Isotropic Light‐Diffusing Films

By optimizing an anisotropic light‐diffusing film with an internal refractive‐index distribution polymer structure and an isotropic light‐diffusing adhesive, we have developed a reflective display configuration that can efficiently diffuse‐reflect light incident from four azimuth directions. This configuration can be applied to tablet display devices that are rotated during use.

Too much information … The influence of target selection difficulty on binding processes

ABSTRACTThe binding of stimuli and responses is an important mechanism in action control. Features of stimuli and responses are integrated into event files. A re-encounter with one or more of the stored features leads to automatic retrieval of the previous event file including the previously integrated response. The distractor-response binding effect evidenced that even irrelevant stimuli can be integrated with a response, subsequently trigger retrieval and thereby have an impact on behaviour. However, the type of distractor stimuli, the method of distractor presentation, and the display configuration largely differed in previous studies with regard to the target selection difficulty. In the present study, we thus varied the extent of target selection difficulty to investigate its role on the distractor-response binding effect. The results indicated that both processes, distractor-response binding and distractor-response retrieval are dependent on target selection difficulty. These results are discussed against recent theorizing in the BRAC framework (Frings, C., Hommel, B., Koch, I., Rothermund, K., Dignath, D., Giesen, C., Kiesel, A., Kunde, W., Mayr, S., Moeller, B., Möller, M., Pfister, R., & Philipp, A. (2020). Binding and Retrieval in Action Control (BRAC). Trends in Cognitive Sciences, 24(5), 375–387. https://doi.org/10.1016/j.tics.2020.02.004).

18‐2: Assessment of Image Quality in Augmented Reality Displays Using a Computational Model of Target Detectability

We characterized augmented reality (AR) displays and developed a computational task‐based model to evaluate their image quality. The model enables fast assessment of image quality and evaluation of tradeoffs between display configurations such as display luminance response, uniformity, resolution, and noise. This work supports the development and optimization of AR displays without extensive measurements or resource‐intensive perception studies.

Display and perception of risk: Analysis of decision support system display and its impact on perceived clinical risk of sepsis-induced health deterioration.

Despite acknowledging the value of clinical decision support systems (CDSS) in identifying risk for sepsis-induced health deterioration in-hospitalized patients, the relationship between display features, decision maker characteristics, and recognition of risk by the clinical decision maker remains an understudied, yet promising, area. The objective of this study is to explore the relationship between CDSS display design and perceived clinical risk of in-hospital mortality associated with sepsis. The study utilized data collected through in-person experimental sessions with 91 physicians from the general medical and surgical floors who were recruited across 12 teaching hospitals within the United States. Results of descriptive and statistical analyses provided evidence supporting the impact of display configuration and clinical case severity on perceived risk associated with in-hospital mortality. Specifically, findings showed that a high level of information (represented by the Predisposition, Infection, Response and Organ dysfunction (PIRO) score) and Figure display (as opposed to Text or baseline) increased awareness to recognizing the risk for in-hospital mortality of hospitalized sepsis patients. A CDSS display that synthesizes the optimal features associated with information level and design elements has the potential to enhance the quantification and communication of clinical risk in complex health conditions beyond sepsis.

Magnification and wavefront aberration correction by a geometric-phase lens in a polarized aerial display using a right-angle prism.

In this paper, geometric-phase lenses, which can not only correct wavefront aberrations but also magnify an aerial image, have been proposed for use in an aerial display system composed of a retroreflector array, an orthogonal-circular polarization grating, a right-angle prism, and a quarter-wave plate. The geometric-phase lenses were demonstrated both experimentally and computationally by arranging them in the aerial display configuration and observing aerial images. We also investigated the relationship between the magnification and the field of view of an aerial image, and it has been found that there is the trade-off relationship between them.

Engineering Slidable Graphical User Interfaces with Slime

Intra-platform plasticity regularly assumes that the display of a computing platform remains fixed and rigid during interactions with the platform in contrast to reconfigurable displays, which can change form depending on the context of use. In this paper, we present a model-based approach for designing and deploying graphical user interfaces that support intra-platform plasticity for reconfigurable displays. We instantiate the model for E3Screen, a new device that expands a conventional laptop with two slidable, rotatable, and foldable lateral displays, enabling slidable user interfaces. Based on a UML class diagram as a domain model and a SCRUD list as a task model, we define an abstract user interface as interaction units with a corresponding master-detail design pattern. We then map the abstract user interface to a concrete user interface by applying rules for the reconfiguration, concrete interaction, unit allocation, and widget selection and implement it in JavaScript. In a first experiment, we determine display configurations most preferred by users, which we organize in the form of a state-transition diagram. In a second experiment, we address reconfiguration rules and widget selection rules. A third experiment provides insights into the impact of the lateral displays on a visual search task.

Examining Potential User Experience Trade-Offs Between Common Computer Display Configurations.

To determine how ultrawide (UW) and dual displays configurations can influence neck biomechanics and performance compared to a single display. Studies have assessed neck kinematics and performance when using dual displays, but these studies have used screen sizes smaller than today's display size, have inconsistent participant placement, and few have assessed these two variables together. Seventeen participants completed five tasks on six display configurations. Neck kinematics and performance were tracked for each configuration. Centered configurations produced significantly different median neck rotation angles compared to secondary configurations (p < .001) for three of the tasks. A 34" curved UW display with a longer viewing distance produced similar neck kinematics to a single 24" display with the potential to also reduce screen interactions. When compared to single, the benefit of secondary versus centered monitors was dependent on the type of task being performed. Users may prefer the UW, centered dual, and secondary dual configurations over the single display. The benefit of secondary versus centered displays is dependent on the type of task being performed. Dual displays are still beneficial but should be used with a monitor arm to switch between centered and secondary configurations as necessary. Future work should look at larger UW displays to see if these results hold compared to dual display configurations. The results can be used to make evidence-based guidelines for displays based on size and task. Researchers can use this information to design future studies looking at specific configurations.

Extensible, Extendable, Expandable, Extractable: The 4E Design Approach for Reconfigurable Displays

ABSTRACT We introduce “4E,” a new design approach of reconfigurable displays that can change their form factors by capitalizing on four quality properties inspired by applied material: extensibility, extendability, expandability, and extractability. This approach is applicable to both fixed and portable displays. We define and exemplify each property, highlighting the key differences in how reconfigurable displays can change their form factors to accommodate more screen real estate for more users, applications, and functionality. To demonstrate the 4E approach, we conduct a targeted literature review and introduce E3Screen, a prototype that enhances any flat screen (e.g., of a tablet, laptop, monitor) with two slidable, rotatable, and foldable lateral displays. We report results from a controlled experiment with participants, conducted to collect, analyze, and understand end users’ preferences for display configurations permitted by the extendability, expandability, and extractability of E3Screen. Our results structure future research and development in reconfigurable displays and multi-display collaborative workspaces.

Posture and performance trade-offs with different display configurations

Posture and performance trade-offs with different display configurations

Method for Prototyping and Testing the Information Minimalism Concept of Nuclear Power Plants

he information structure and visualization design in nuclear power plant is based on careful analysis and understanding of the work domain of the operator. Piping and instrumentation diagram (P&amp;ID) based layouts tend to require more display space. Overuse of mimic layouts can result in visual clutter. P&amp;ID based layouts of controls are usually less easily operated configurations than those provided by other array conventions. Thus, a display method is emerging to minimize P&amp;ID based display. The information minimalism concept is a monitoring and controller display method for each operation mode based on log analyses of operator actions. This method provides the monitoring information and control means necessary for the operator, according to operation mode, to perform a specific operation. This method can reduce the time spent searching for information and the transition between display pages. The aim of this paper was to verify the feasibility of implementing new concepts by establishing an information minimalism prototype. The validity of the function, performance, and operational test methods were verified by testing one such information minimalism prototype. In this paper, we describe prototyping and testing methods for the information minimalism concept for NPPs. In the future, this concept is to be added to the concept of operator support with the existing display configuration and navigation, and thereby extend its application range while actually utilizing it.

Recognition of incidentally learned visual search arrays is supported by fixational eye movements.

Repeated encounter of abstract target-distractor letter arrangements leads to improved visual search for such displays. This contextual-cueing effect is attributed to incidental learning of display configurations. Whether observers can consciously access the memory underlying the cueing effect is still a controversial issue. The current study uses a novel recognition task and eyetracking to tackle this question. Experiment 1 investigated observers' ability to recognize or "generate" the display quadrant of the target in a previous search array when the target was now substituted by distractor element as well as where observers' eye fixations would fall while they freely viewed the recognition display, examining the link between the fixation pattern and explicit recognition judgments. Experiment 2 tested whether eye fixations would serve a critical role for explicit retrieval from context memory. Experiment 3 asked whether eye fixations of the target region are critical for context-based facilitation of search reaction times to manifest. The results revealed longer fixational dwell times in the target quadrant for learned relative to foil displays. Further, explicit recognition was enhanced, and above chance level, when observers were made to fixate the target quadrant as compared to when they were prevented from doing so. However, the manifestation of contextual cueing of visual search did itself not require fixations of the target quadrant. Moreover, contextual-cueing of search reaction times was significantly correlated with both fixational dwell times and observers' explicit generation performance. The results argue in favor of contextual cueing of visual search being the result of a single, explicit, memory system, though it could nevertheless receive support from separable-automatic versus controlled-retrieval processes. Fixational eye movements, that is, the directed overt allocation of visual attention, provide an interface between these processes in context cueing. (PsycINFO Database Record (c) 2019 APA, all rights reserved).

Supporting Multitracking Performance With Novel Visual, Auditory, and Tactile Displays

This article investigates performance in multiple concurrent tracking tasks with multisensory displays in a driving context. In many work domains, such as driving, aviation, process control, and medicine, humans perform “tracking” tasks that involve observing continuous variables and providing a control input to achieve and maintain satisfactory levels in those variables. Performance in multiple concurrent tracking tasks (“multitracking”) was studied in driving-like scenarios that challenged participants to track established targets for lateral (lane position) and longitudinal (speed) variables. Novel speed displays were developed to engage nontraditional sensory modalities (e.g., ambient-visual, auditory, or tactile) with relative speed conveyed through simple or multidimensional signal encoding methods. Participants’ speed-tracking and lane-tracking performances were measured concurrently and compared across display configurations within-subjects. Results showed lane tracking performance to be unaffected by display configuration; however, speed tracking and overall performance were significantly improved with novel displays, compared to the baseline configuration. Redundantly encoded auditory displays best-supported multitracking performance, but redundantly encoded tactile displays were not as beneficial as were simple encodings. These results provide insight into the human information processing of semicontinuous multisensory displays and can inform display design in driving and other visually demanding work contexts.

Spatial loss factor for the analysis of accommodation depth cue on near-eye light field displays

In order to address the vergence-accommodation conflict problem, a generalized model consisting of a human visual system for the 4D light field display system was proposed. This model includes the key factors, such as retinal resolution, the central depth plane (CDP), and the proposed spatial loss factor, for the light field display system. The spatial resolution of the target plane in the depth of field (DOF) were quantitatively evaluated based on the proposed model. The results showed that the inconsistency of spatial resolution in DOF results in unstable eye accommodation response. Based on the fovea resolution-limit, we evaluated and simulated the resolution of perceived images on retina and the accommodation response based on spatial loss factor. The simulation results verified that a near-eye light field display (NE-LFD) configuration with a spatial loss factor greater than 0.8, corresponding to 2 by 2 views, or a minimum spatial loss factor 0.6, corresponding to 3 by 3 views, has the ability to render a nearly correct focus cues and accommodation response.