The Joint Effects of Supervisor Pay Transparency and Vertical Pay Dispersion on Reporting Honesty

2020 ◽  
Vol 32 (3) ◽  
pp. 179-192 ◽  
Author(s):  
Xiaotao (Kelvin) Liu ◽  
Yu Tian ◽  
Yue (May) Zhang

ABSTRACT We experimentally investigate how supervisor pay transparency interacts with vertical pay dispersion to affect subordinates' reporting honesty in a budgeting setting. We find that the effect of supervisor pay transparency relative to pay secrecy becomes more negative as vertical pay dispersion becomes higher. Our findings suggest that while supervisor pay transparency complements an egalitarian pay structure by increasing reporting honesty, it does not fare along with high vertical pay dispersion as the combination of the two appears to decrease reporting honesty, even when such high dispersion can be justified. Further investigation suggests that our result is not driven by the feeling of unfairness toward high supervisor pay, but by a benchmarking effect (i.e., subordinates use supervisor pay as a pay standard and try to find ways to earn a similar amount).

1988 ◽  
Vol 132 ◽  
pp. 525-530
Author(s):  
Raffaele G. Gratton

The use CCD detectors has allowed a major progress in abundance derivations for globular cluster stars in the last years. Abundances deduced from high dispersion spectra now correlates well with other abundance indicators. I discuss some problems concerning the derivation of accurate metal abundances for globular clusters using high dispersion spectra from both the old photographic and the most recent CCD data. The discrepant low abundances found by Cohen (1980), from photographic material for M71 giants, are found to be due to the use of too high microturbulences.


1965 ◽  
Vol 5 ◽  
pp. 109-111
Author(s):  
Frederick R. West

There are certain visual double stars which, when close to a node of their relative orbit, should have enough radial velocity difference (10-20 km/s) that the spectra of the two component stars will appear resolved on high-dispersion spectrograms (5 Å/mm or less) obtainable by use of modern coudé and solar spectrographs on bright stars. Both star images are then recorded simultaneously on the spectrograph slit, so that two stellar components will appear on each spectrogram.


2020 ◽  
Author(s):  
Luke Elissiry ◽  
Jingwen Sun ◽  
Ann M. Hirsch ◽  
Chong Liu

Synthetic fertilizer is responsible for the greatly increased crop yields that have enabled worldwide industrialization. However, the production and use of such fertilizers are environmentally unfriendly and unsustainable; synthetic fertilizers are produced via non-renewable resources and fertilizer runoff causes groundwater contamination and eutrophication. A promising alternative to synthetic fertilizer is bacterial inoculation. In this process, a symbiotic relationship is formed between a crop and bacteria species that can fix nitrogen, solubilize phosphorus, and stimulate plant hormone production. The bacteria carrier developed here aims to maintain bacteria viability while in storage, protect bacteria while encapsulated, and provide a sustained and controllable bacterial release. This novel bacterial delivery method utilizes inorganic nanomaterials, silica microbeads, to encapsulate symbiotic bacteria. These microbeads, which were produced with aqueous, non-toxic precursors, are sprayed directly onto crop seeds and solidify on the seeds as a resilient silica matrix. The bacterial release from the carrier was found by submerging coated seeds in solution to simulate degradation in soil environments, measuring the number of bacteria released by the plate count technique, and comparing the carrier to seeds coated only in bacteria. The carrier’s effectiveness to enhance plant growth was determined through greenhouse plant assays with alfalfa (<i>Medicago sativa</i>) plants and the nitrogen-fixing <i>Sinorhizobium meliloti</i> Rm1021 strain. When compared to bacteria-only inoculation, the silica microbead carrier exhibited significantly (P < 0.05) increased holding capacity of viable bacteria and increased plant growth by a similar amount, demonstrating the capability of inorganic nanomaterials for microbial delivery. The carrier presented in this work has potential applications for commercial agriculture and presents an opportunity to further pursue more sustainable agricultural practices.


2020 ◽  
Author(s):  
Luke Elissiry ◽  
Jingwen Sun ◽  
Ann M. Hirsch ◽  
Chong Liu

Synthetic fertilizer is responsible for the greatly increased crop yields that have enabled worldwide industrialization. However, the production and use of such fertilizers are environmentally unfriendly and unsustainable; synthetic fertilizers are produced via non-renewable resources and fertilizer runoff causes groundwater contamination and eutrophication. A promising alternative to synthetic fertilizer is bacterial inoculation. In this process, a symbiotic relationship is formed between a crop and bacteria species that can fix nitrogen, solubilize phosphorus, and stimulate plant hormone production. The bacteria carrier developed here aims to maintain bacteria viability while in storage, protect bacteria while encapsulated, and provide a sustained and controllable bacterial release. This novel bacterial delivery method utilizes inorganic nanomaterials, silica microbeads, to encapsulate symbiotic bacteria. These microbeads, which were produced with aqueous, non-toxic precursors, are sprayed directly onto crop seeds and solidify on the seeds as a resilient silica matrix. The bacterial release from the carrier was found by submerging coated seeds in solution to simulate degradation in soil environments, measuring the number of bacteria released by the plate count technique, and comparing the carrier to seeds coated only in bacteria. The carrier’s effectiveness to enhance plant growth was determined through greenhouse plant assays with alfalfa (<i>Medicago sativa</i>) plants and the nitrogen-fixing <i>Sinorhizobium meliloti</i> Rm1021 strain. When compared to bacteria-only inoculation, the silica microbead carrier exhibited significantly (P < 0.05) increased holding capacity of viable bacteria and increased plant growth by a similar amount, demonstrating the capability of inorganic nanomaterials for microbial delivery. The carrier presented in this work has potential applications for commercial agriculture and presents an opportunity to further pursue more sustainable agricultural practices.


2018 ◽  
Author(s):  
Jon Jachimowicz ◽  
Christopher To ◽  
Oliver P Hauser

Pay dispersion is a core organizational attribute, but its’ relationship to employee turnover is relatively unclear. We propose this is the case because prior research suffers from two limitations: (1) it neglects how pay dispersion impacts employees’ psychological attitudes toward their job, and (2) it assumes that teams are homogenous, disregarding that variations in team characteristics shape how employees experience pay dispersion. The current research addresses these shortcomings by drawing on job demand-control theories to investigate how pay dispersion shapes employees’ job attitudes, and explicitly incorporates one aspect of team heterogeneity, team size variations. More specifically, our core proposition is that team pay inequality, i.e., the pay dispersion of employees within a team, reduces employees’ job control—their perceived capability to control work—particularly when teams are larger. This, in turn, makes it more likely employees in large unequal teams leave their organization. Two unique large-scale archival and survey datasets from a technology (N = 881) and financial services company (N = 22,816) provide support for our hypotheses. The current research thus offers a novel perspective on pay dispersion: salary differences within teams fundamentally shape employees’ job attitudes—particularly their job control—and thus determine important organizational outcomes.


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