Instrument development for organisational health

This study establishes the factors influencing Organisational Health (OH), leading to the development of an empirical measurement instrument.Despite the fact that a few firms have understood the significance of measuring health, they mostly do not know precisely what to measure, because of an absence of understanding of what constitutes a set of organisational health dimensions.This study used a mixed method through literature review, expert opinion and a quantitative pilot survey with 123 supervisory staff from a telecommunication company in India. The instrument was further tested for standardisation in Malaysia, Bangladesh and Indonesia.The study identified an OH measurement model consisting three constructs such as Change Capacity, Goal Alignment and Competitive Advantage.There are 29 items which collectively influence the degree of OH in an Organisation. By proposing, creating, and validating a multi-dimensional, operational measure of the organisational health, and by showing its viability in enhancing organisational performance, the present study gives practitioners a handy instrument for assessing the extensiveness of their current OH initiatives.The experts while interacting for the study expressed a uniform opinion regarding the OH constructs and its factors.We believe that developing an objective measurement instrument for organisational health is a significant contribution to the body of knowledge

Anticipatory competence building: Towards a measurement model

Identification of resources that will be a source of competitive advantage is not a simple task for today’s firms, since many of the characteristics attributed to them can only be intuitively perceived. The available competence frameworks capture the competence requirements for a family of clear and present jobs.In a fast moving business world of new products and technology, companies are grappling with the requirement to generate, acquire and internalize newer competence required for future products. This study examines Anticipatory Competence Building (ACB) as an essential moderator between Technology Competence Obsolescence (TCO) and Organisational Health (OH) in the Information and Communication Technology (ICT) sector.In this paper, we argue that ACB can be developed into a measurement model with five distinct dimensions, namely Competence obsolescence, Future competence, Technology research, Market orientation and Competence renewal.The data is consolidated using the Delphi technique with the opinions of experts from diverse fields within Malaysia. The study ratified an ACB model consisting second order constructs with 17 factors which collectively influence the degree of TCO and OH in an Organization.These factors are itemized to convert the model into a survey based instrument of measure.The model gives practitioners a refreshed look at the current competency framework to be wary about the imminent and essential future competencies

Impact of innovation capacity and anticipatory competence on organizational health: A resource based study of Nokia, Motorola and Blackberry

Analysts cite several reasons for the decline of Nokia, Motorola & Blackberry which include wrong product strategy, market mis-alignment, improper customer orientation, untimely investment etc. However, looking at from the Resource-Based View (RBV), the researchers identify few catalytic elements, which arguably augmented an unfavorable situation for these companies to be decimated gradually by the quick and the smart in the marketplace.The study was conducted through the analytical research of the literature available on the three companies.From the RBV perspective, the researchers identify Collective Competence Deficiency (CCD) as a common factor in the companies which resulted in decline of the organizational health.The study acknowledges the role of disruptive technology in making internal competence obsolete faster than the usual in Information and Communication Technology sector. The researchers further explore the moderating role of Innovation Capacity (IC) and Anticipatory Competence Building (ACB), in defining the degree of competence deficiency created by the fast changing technology.Through the case studies of Nokia, Motorola and Blackberry and from the content analysis of literature around technology companies, there emerge the measurement models of IC and ACB.Researchers consolidated 7 dimensions and 21 factors for IC and 6 dimensions and 17 factors for ACB. HRD practitioners and scholars should further explore these relationships, especially in the high tech industry sector where the competition drives out established companies from the marketplace for want of innovation and competence, a right mix of vitamins to maintain theOrganizationalHealth (OH)

Survey of Telemedicine by Pediatric Nephrologists During the COVID-19 Pandemic

Introduction: The slow increase in use of telemedicine began to expand rapidly, along with reimbursement changes, during the coronavirus disease-2019 (COVID-19) pandemic. Standardized protocols for these services are lacking but are needed for effective and equitable health care. In this study, we queried pediatric nephrologists and their patients about their telemedicine experiences during the pandemic. Methods: Surveys that were in compliance with the Health Insurance Portability and Accountability Act were deployed online to patients and physicians. Results: We collected survey responses from 400 patients and 197 pediatric nephrologists. Patients reported positive experiences with telemedicine visits as it was logistically easier than in-person visits. Patients also felt that the quality of their visits were equivalent to what they would receive in person. Physicians used a wide variety of online systems to conduct synchronous telemedicine with Zoom (23%), EPIC (9%), Doxy.me (7%), services not specified (37%), or a mix of local or smaller services (24%). Most physicians\u27 concerns were related to technological issues and the ability to procure physical exams and/or laboratory results. Conclusions: There is a paucity of published trials on telemedicine services in pediatric nephrology. Virtual care was feasible and acceptable for patients, caregivers, and providers during the COVID-19 pandemic

Telemedicine for Pediatric Nephrology: Perspectives on COVID-19, Future Practices, and Work Flow Changes

Although the use of telemedicine in rural areas has increased steadily over the years, its use was rapidly implemented during the onset of the coronavirus disease 2019 (COVID-19) crisis. Due to this rapid implementation, there is a lack of standardized work flows to assess and treat for various nephrotic conditions, symptoms, treatment modalities, and transition processes in the pediatric population. To provide a foundation/suggestion for future standardized work flows, the authors of this report have developed standardized work flows using the Delphi method. These work flows were informed based on results from cross-sectional surveys directed to patients and providers. Most patients and providers were satisfied, 87% and 71%, respectively, with their telemedicine visits. Common issues that were raised with the use of telemedicine included difficulty procuring physical laboratory results and a lack of personal warmth during telemedicine visits. The work flows created based on these suggestions will both enhance safety in treating patients and allow for the best possible care

Extensive MRO CRISM Observations of 1.27 micron O2 Airglow in Mars Polar Night and Their Comparison to MRO MCS Temperature Profiles and LMD GCM Simulations

The Martian polar night distribution of 1.27 micron (0-0) band emission from O2 singlet delta [O2(1Delta(sub g))] is determined from an extensive set of Mars Reconnaissance Orbiter (MRO) Compact Reconnaissance Imaging Spectral Mapping (CRISM) limb scans observed over a wide range of Mars seasons, high latitudes, local times, and longitudes between 2009 and 2011. This polar nightglow reflects meridional transport and winter polar descent of atomic oxygen produced from CO2 photodissociation. A distinct peak in 1.27 micron nightglow appears prominently over 70-90NS latitudes at 40-60 km altitudes, as retrieved for over 100 vertical profiles of O2(1Delta(sub g)) 1.27 micron volume emission rates (VER). We also present the first detection of much (x80+/-20) weaker 1.58 micron (0-1) band emission from Mars O2(1Delta(sub g)). Co-located polar night CRISM O2(1Delta(sub g)) and Mars Climate Sounder (MCS) (McCleese et al., 2008) temperature profiles are compared to the same profiles as simulated by the Laboratoire de Mtorologie Dynamique (LMD) general circulation/photochemical model (e.g., Lefvre et al., 2004). Both standard and interactive aerosol LMD simulations (Madeleine et al., 2011a) underproduce CRISM O2(1Delta(sub g)) total emission rates by 40%, due to inadequate transport of atomic oxygen to the winter polar emission regions. Incorporation of interactive cloud radiative forcing on the global circulation leads to distinct but insufficient improvements in modeled polar O2(1Delta(sub g)) and temperatures. The observed and modeled anti-correlations between temperatures and 1.27 mm band VER reflect the temperature dependence of the rate coefficient for O2(1Delta(sub g)) formation, as provided in Roble (1995)

Real-space imaging of polar and elastic nano-textures in thin films via inversion of diffraction data

Exploiting the emerging nanoscale periodicities in epitaxial, single-crystal thin films is an exciting direction in quantum materials science: confinement and periodic distortions induce novel properties. The structural motifs of interest are ferroelastic, ferroelectric, multiferroic, and, more recently, topologically protected magnetization and polarization textures. A critical step towards heterostructure engineering is understanding their nanoscale structure, best achieved through real-space imaging. X-ray Bragg coherent diffractive imaging visualizes sub-picometer crystalline displacements with tens of nanometers spatial resolution. Yet, it is limited to objects spatially confined in all three dimensions and requires highly coherent, laser-like x-rays. Here we lift the confinement restriction by developing real-space imaging of periodic lattice distortions: we combine an iterative phase retrieval algorithm with unsupervised machine learning to invert the diffuse scattering in conventional x-ray reciprocal-space mapping into real-space images of polar and elastic textures in thin epitaxial films. We first demonstrate our imaging in PbTiO3/SrTiO3 superlattices to be consistent with published phase-field model calculations. We then visualize strain-induced ferroelastic domains emerging during the metal-insulator transition in Ca2RuO4 thin films. Instead of homogeneously transforming into a low-temperature structure (like in bulk), the strained Mott insulator splits into nanodomains with alternating lattice constants, as confirmed by cryogenic scanning transmission electron microscopy. Our study reveals the type, size, orientation, and crystal displacement field of the nano-textures. The non-destructive imaging of textures promises to improve models for their dynamics and enable advances in quantum materials and microelectronics

Processing of ultrafine-size particulate metal matrix composites by advanced shear technology

Copyright @ 2009 ASM International. This paper was published in Metallurgical & Materials Transactions A 40A(3) and is made available as an electronic reprint with the permission of ASM International. One print or electronic copy may be made for personal use only. Systematic or multiple reproduction, distribution to multiple locations via electronic or other means, duplications of any material in this paper for a fee or for commercial purposes, or modification of the content of this paper are prohibited.Lack of efficient mixing technology to achieve a uniform distribution of fine-size reinforcement within the matrix and the high cost of producing components have hindered the widespread adaptation of particulate metal matrix composites (PMMCs) for engineering applications. A new rheo-processing method, the melt-conditioning high-pressure die-cast (MC-HPDC) process, has been developed for manufacturing near-net-shape components of high integrity. The MC-HPDC process adapts the well-established high shear dispersive mixing action of a twin-screw mechanism to the task of overcoming the cohesive force of the agglomerates under a high shear rate and high intensity of turbulence. This is followed by direct shaping of the slurry into near-net-shape components using an existing cold-chamber die-casting process. The results indicate that the MC-HPDC samples have a uniform distribution of ultrafine-sized SiC particles throughout the entire sample in the as-cast condition. Compared to those produced by conventional high-pressure die casting (HPDC), MC-HPDC samples have a much improved tensile strength and ductility.EP-SR

Imaging Mercury's polar deposits during MESSENGER's low‐altitude campaign

Images obtained during the low‐altitude campaign in the final year of the MErcury Surface, Space ENvironment, GEochemistry, and Ranging (MESSENGER) mission provide the highest‐spatial‐resolution views of Mercury's polar deposits. Images for distinct areas of permanent shadow within 35 north polar craters were successfully captured during the campaign. All of these regions of permanent shadow were found to have low‐reflectance surfaces with well‐defined boundaries. Additionally, brightness variations across the deposits correlate with variations in the biannual maximum surface temperature across the permanently shadowed regions, supporting the conclusion that multiple volatile organic compounds are contained in Mercury's polar deposits, in addition to water ice. A recent large impact event or ongoing bombardment by micrometeoroids could deliver water as well as many volatile organic compounds to Mercury. Either scenario is consistent with the distinctive reflectance properties and well‐defined boundaries of Mercury's polar deposits and the presence of volatiles in all available cold traps