In Sweden, the government is responding to the energy crisis by installing smart meters in future homes, which will provide real-time feedback of energy use on the Internet. Homeowners are encouraged to set monthly energy goals in terms of money and/or watts. They can log into their online accounts to view their home´s data and find tips on energy conservation.But realizing that visiting a Web site isn’t the most engaging way to view this data, Ng developed the Spark Lamp to enhance the experience by extending the feedback beyond the computer screen and into everyday objects in the home. The lamp concept itself is engaging and simple: during the day, you turn the lamp upside down on a windowsill to recharge the solar panels. When turned over, the lamp looks a bit like a small potted plant. At night, when you turn the lamp upright and switch it on, the lamp (equipped with Wi-Fi) flickers in different colors to signal your home´s power consumption level for the month compared to your goal. The lamp pulses for about three seconds, displaying green if you´re doing better than your goal, yellow if you´re on target, and red if you´re using too much power. Then the lamp returns to a regular white light lamp. The Spark Lamp is not yet available for purchase.via: Design Zen Explore further Citation: Solar-Powered LED Lamp Tracks Your Home’s Energy Use (2008, September 11) retrieved 18 August 2019 from https://phys.org/news/2008-09-solar-powered-lamp-tracks-home-energy.html The Spark Lamp was designed in response to the Swedish government´s plan to install smart meters in new homes to track energy consumption. Designer Beverly Ng created the solar-powered LED Spark Lamp as a decorative way to reduce energy consumption – but, perhaps more importantly, to let homeowners know of their daily energy use. Do white LEDs disrupt our biological clocks? This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only.
This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only. AMO Manufactures First Graphene Transistors Kim is a scientist at Columbia University in New York City. He has been working with Melinda Han and Juliana Brant to try and come up with a way to make graphene a feasible replacement for silicon. Toward that end, they have been looking at ways to overcome some of the problems associated with using graphene as a semiconductor in electronic devices. They set forth some ideas for electron transport for graphene in Physical Review Letters: “Electron Transport in Disordered Graphene Nanoribbons.”“Graphene has high mobility, and less scattering than silicon. Theoretically, it is possible to make smaller structures that are more stable at the nanolevel than those made from silicon,” Kim says. He points out that as electronics continue to shrink in size, the interest in finding viable alternatives to silicon is likely to increase. Graphene is a good candidate because of the high electron mobility it offers, its stability on such a small scale, and the possibility that one could come up with different device concepts for electronics.There are problems with graphene, though. “First of all, graphene does not have a band gap, and that is essential for semiconductor device operation,” Kim points out. “Previously, we found that you can create an energy gap by cutting graphene into strips, creating nanoribbons..” Of course, now that scientists can use nanoribbons to create an energy gap, a new set of challenges has arisen. “The gap is not so simple as we first thought. We have new complications to deal with now in the way the energy gap behaves.”Kim and his colleagues discovered that the nanoribbons have a rough edge, creating more scattering than they would like. “There is good control up to the nanometer,” he says, “but the control is not as precise at the atomic level.” Another issue is that the nanoribbons sit on a substrate, adding more disorder. “Our paper here is mostly concerned with identifying these issues, so that we can better understand how graphene nanoribbons might be used in the future,” Kim insists. “We want to understand the nature of the energy gap so that we can perhaps engineer smoother atomic edges and create a better substrate that does not induce disorder potential.”With the knowledge of how to create an energy gap with graphene nanoribbons available, and with some of the properties of the gap identified, it is possible to begin making changes. “I’m hopeful that in the future we might be able to use graphene to compete with silicon,” Kim says. “The high mobility of graphene makes it a good candidate, and since it is likely to be more stable at the nanoscale, there is real potential. However, we need to be able solve some of these other problems first. But we are well on our way.” More information: Melinda Han, Juliana Brant, and Philip Kim, “Electron Transport in Disordered Graphene Nanoribbons,” Physical Review Letters (2010). Available online: link.aps.org/doi/10.1103/PhysRevLett.104.056801 . Graphene is an atomic-scale honeycomb lattice made of carbon atoms. By Dr. Thomas Szkopek, via Wikipedia Citation: Can graphene nanoribbons replace silicon? (2010, February 18) retrieved 18 August 2019 from https://phys.org/news/2010-02-graphene-nanoribbons-silicon.html Copyright 2010 PhysOrg.com. All rights reserved. This material may not be published, broadcast, rewritten or redistributed in whole or part without the express written permission of PhysOrg.com. Explore further (PhysOrg.com) — “Graphene has been the subject of intense focus and research for a few years now,” Philip Kim tells PhysOrg.com. “There are researchers that feel that it is possible that graphene could replace silicon as a semiconductor in electronics.”
More information: Photometry of the long period dwarf nova MU Centauri, arXiv:1601.05722 [astro-ph.SR], arxiv.org/abs/1601.05722AbstractEven among the brigher cataclysmic variables an appreciable number of objects exist about which not much is known. One of them, MU Cen, was observed as part of a small project to better characterize these neglected systems. The temporal variations of the brightness of MU Cen during quiescence were studied in order to find clues to the structure of the system and its behaviour on time scales of hours and shorter. Light curves observed in white light at a time resolution of a few seconds and with a duration of several hours, obtained in six nights and spanning a total time base of five months, were investigated using different time series analysis tools, as well as model fits. The light curve of MU Cen is dominated by ellipsoidal variations of the secondary star. The refined orbital period is P(orb) = 0.341883 days. Model fits permit to constrain the temperature of the secondary star to ~5000 K and the orbital inclination to 50 deg <= i <= 65 deg. The latter result permits estimates of the component masses which are probably somewhat smaller that derived in previous publications. A second persistent period of P(2) = 0.178692 days was also identified. Its origin remains unclear. As all cataclysmic variables, MU Cen exhibits flickering, however, on a rather low level. Its frequency behaviouris normal for quiescent dwarf novae. There are indications that the individual flickering events are not always independent but can lead to effects reminiscent of quasi-periodic oscillations. Mu Centauri. Credit: Palomar Observatory/STScI/WikiSky Bruch used the 0.6-m Zeiss and the 0.6-m Boller & Chivens telescopes of the Observatorio do Pico dos Dias in Brazil, to observe the star. The photometric observations of its light curves were conducted during six nights in February, May and June 2015.The brightness of Mu Centauri was measured as magnitude difference with respect to several comparison stars in the field. The observations showed a clear modulation on a time scale of about four hours. According to the author of the paper, this points to immediately ellipsoidal variations of the secondary star which should contribute a significant part of the light in this long period dwarf nova.The star's flickering was found to be on a comparatively low level compared to most cataclysmic variables, what can be explained by the strong contribution of the secondary star to the total light. However, it's not surprising for Bruch that Mu Centauri experiences this phenomenon, because flickering is a distinctive feature of cataclysmic variable stars.By studying the star's light curve, the researcher also detected consistent modulations on two different periods. The study reveals the orbital period to be approximately 0.34 days and the second period to be about 0.18 days."Apart from the dominating orbital period which is due to ellipsoidal variations of the secondary star, variability on a second period, slightly longer than a half of orbital period, was detected. There is no obvious simple relation between second period and orbital period," the paper reads.Bruch emphasizes that the nature of these variations is unclear. One possible explanation offered by the scientist is that Mu Centauri could be an intermediate polar. The modulation may be due to the variable aspect of a magnetically confined accretion region on the surface of a white dwarf rotating with second period. However, the evidence collected so far to support this hypothesis is very weak.The researcher was able to derive two important parameters of the system. According to his study, the orbital inclination should lie in the range from 50 to 65 degrees. The temperature of the secondary star was also determined to be about 5,000 K, similar to secondary star temperatures found in other cataclysmic variables with similar orbital periods.Although the research peeks into Mu Centauri's mysterious nature and reveals important information about its orbit and temperature, Bruch noted that other crucial system parameters, such as the mass ratio, could not be constrained due to strong parameter correlations.The research is another significant step toward better understanding of cataclysmic variable stars like Mu Centauri. The number of known systems of this kind has grown enormously in recent years, so there is a vast catalog of these objects available for further studies. Many of them could be easily observed with comparatively small telescopes, making future observations more accessible. Explore further Citation: The mysterious cataclysmic variable star Mu Centauri (Update) (2016, January 28) retrieved 18 August 2019 from https://phys.org/news/2016-01-mysterious-cataclysmic-variable-star-mu.html This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only. © 2016 Phys.org (Phys.org)—Located about 510 light years from the Earth, Mu Centauri is a very interesting and mysterious cataclysmic variable star. It is a dwarf nova, a close binary star system in which a white dwarf accretes matter from its companion. Although little is know about Mu Centauri, we could observe temporal variations of its brightness and its flickering on a relatively low level. It was also found that this system's light curve contains odd consistent modulations on two different periods. A recent research paper published on Jan. 21 in the arXiv journal by Albert Bruch from the Laboratório Nacional de Astrofísica in Brazil, describes the mysterious nature of Mu Centauri. Astronomers find six new millisecond pulsars
Explore further Citation: Using platinum-molybdenum carbide to catalytically release hydrogen to power a fuel cell (2017, March 31) retrieved 18 August 2019 from https://phys.org/news/2017-03-platinum-molybdenum-carbide-catalytically-hydrogen-power.html As the planet continues to heat up, scientists around the world seek ways to power automobiles in a way that are as economical as gasoline. Such efforts have led to electric vehicles, hybrids, cars and trucks running on natural gas, ethanol and other fuels, and of course, the ever-elusive hydrogen fuel cell. In this new effort, the researchers suggest they may finally have found a way to make the last option viable.Currently, there are a number of ways to obtain hydrogen for use in fuel cells, but thus far, none of them have proved economical enough to supplant the use of gasoline as the primary fuel for automobiles around the globe. In this new effort, the researchers suggest they may have come up with a process that could make hydrogen fuel cell vehicles more practical.The process involves using a new catalyst, platinum–molybdenum carbide, to drive a reaction that results in the production of H2 and releases carbon dioxide. The team reports that the process can be done at temperatures from 150 to 190 C° and avoids the use of caustic materials. They claim it is five times as efficient as other techniques that use methanol. They also claim that a car with a 50 liter tank of methanol and just six to 10 grams of their catalyst could power a Toyota Mirai for approximately 690 km. Also, it would cost just $15 for the methanol and $320 for the platinum, which the team suggests, might be recyclable.The group acknowledges that a process that releases carbon dioxide is not ideal, but note that many hydrogen-producing industrial processes do so, as well. They acknowledge that platinum is extremely expensive, but point out that current catalytic converters have approximately one to four grams of recyclable noble metals that could conceivably provide a source. (Phys.org)—A team of researchers from several institutions in China and the U.S. has developed a way to use platinum–molybdenum carbide to catalytically release hydrogen from methanol and water to power a hydrogen fuel cell. In their paper published in the journal Nature, the team describes the new method to produce hydrogen for possible use in a fuel cell. This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only. More information: Lili Lin et al. Low-temperature hydrogen production from water and methanol using Pt/α-MoC catalysts, Nature (2017). DOI: 10.1038/nature21672AbstractPolymer electrolyte membrane fuel cells (PEMFCs) running on hydrogen are attractive alternative power supplies for a range of applications1, 2, 3, with in situ release of the required hydrogen from a stable liquid offering one way of ensuring its safe storage and transportation4, 5 before use. The use of methanol is particularly interesting in this regard, because it is inexpensive and can reform itself with water to release hydrogen with a high gravimetric density of 18.8 per cent by weight. But traditional reforming of methanol steam operates at relatively high temperatures (200–350 degrees Celsius)6, 7, 8, so the focus for vehicle and portable PEMFC applications9 has been on aqueous-phase reforming of methanol (APRM). This method requires less energy, and the simpler and more compact device design allows direct integration into PEMFC stacks10, 11. There remains, however, the need for an efficient APRM catalyst. Here we report that platinum (Pt) atomically dispersed on α-molybdenum carbide (α-MoC) enables low-temperature (150–190 degrees Celsius), base-free hydrogen production through APRM, with an average turnover frequency reaching 18,046 moles of hydrogen per mole of platinum per hour. We attribute this exceptional hydrogen production—which far exceeds that of previously reported low-temperature APRM catalysts—to the outstanding ability of α-MoC to induce water dissociation, and to the fact that platinum and α-MoC act in synergy to activate methanol and then to reform it. Journal information: Nature © 2017 Phys.org Reaction path for hydrogen production from methanol and water. Credit: (c) Nature (2017). DOI: 10.1038/nature21672 Toyota recalls all fuel-cell Mirai vehicles
First flexible memory device using oxide ferroelectric material A ferroelectric domain wall is a topological structure with defects that separate regions of uniform polarization—as the researchers note, the discovery of conductivity in such structures has led to a new field of science called “domain wall nanoelectronics.” The science essentially covers the wall as a means of storing information—a binary state can be read or written in such memory devices by inducing or removing a conductive wall. They can also be read non-destructively, just as with conventional memory technology. In this new effort, the researchers created a prototype using nanofabricated electrodes that they designed for use specifically with their wall memory, which, they note, was scalable to below 100nm.Ferroelectric materials are similar to ferromagnetic materials in that they have a permanent dipole moment. The obvious difference is the former moment is electrical while the latter is magnetic, which means that ferroelectric materials can be oriented by exposure to an electric versus a magnetic field. Like ferromagnetics, they have domain walls—but they are much smaller, allowing for the creation of much smaller memory materials, typically in the 1nm range. This makes them smaller by a factor of 10 than current silicon CMOS structures. Creating a memory device involved building a structure in which it was possible to create and destroy walls using electrical pulses. They built their memory structures by using nanolithography to create Pt/Ti patterns on thin film BiFeO3 which could be used as electrodes.The researchers report that wall materials such as theirs are able to store data on multiple levels because of their unique resistance states, which allows for tuning. They also note that a device using such memory requires less energy to store information than conventional memory. Memory for their prototype could be read at voltages less than 3 V and the team claims it also has a reasonably high OFF-ON ratio of approximately 103 and that it is robust. © 2017 Phys.org Journal information: Science Advances Citation: A functional prototype nonvolatile ferroelectric domain wall memory (2017, June 26) retrieved 18 August 2019 from https://phys.org/news/2017-06-functional-prototype-nonvolatile-ferroelectric-domain.html More information: Nonvolatile ferroelectric domain wall memory, Science Advances 23 Jun 2017: Vol. 3, no. 6, e1700512, DOI: 10.1126/sciadv.1700512AbstractFerroelectric domain walls are atomically sharp topological defects that separate regions of uniform polarization. The discovery of electrical conductivity in specific types of walls gave rise to “domain wall nanoelectronics,” a technology in which the wall (rather than the domain) stores information. This paradigm shift critically hinges on precise nanoengineering of reconfigurable domain walls. Using specially designed nanofabricated electrodes and scanning probe techniques, we demonstrate a prototype nonvolatile ferroelectric domain wall memory, scalable to below 100 nm, whose binary state is defined by the existence or absence of conductive walls. The device can be read out nondestructively at moderate voltages (<3 V), exhibits relatively high OFF-ON ratios (~103) with excellent endurance and retention characteristics, and has multilevel data storage capacity. Our work thus constitutes an important step toward integrated nanoscale ferroelectric domain wall memory devices. (Phys.org)—A team of researchers from institutions in Australia, the U.S. and China has developed a functional prototype nonvolatile ferroelectric domain wall memory. In their paper published on the open access site Science Advances, the group describes their prototype, its properties and how well it worked. Experimental geometry and details of the ferroelectric switching process. (A) Schematic of the experimental geometry for investigation of the prototype FEDW device. E-field, electric field. (B) Topographic image of the actual e-beam–fabricated device on the surface of the BFO thin film acquired over the dashed square-frame area, as shown in (A). (C) Schematic showing two polarization variants separated by 71° between the neighboring unit cells (purple, Bi atom; red, Fe atom). Credit: Science Advances 23 Jun 2017: Vol. 3, no. 6, e1700512, DOI: 10.1126/sciadv.1700512 Explore further This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only.
More information: Zaixing Huang et al. “Low carbon renewable natural gas production from coalbeds and implications for carbon capture and storage.” Nature Communications. DOI: 10.1038/s41467-017-00611-7 (Phys.org)—A new study shows that plant-consuming microorganisms that reside in coalbeds can convert plant carbohydrates into natural gas, potentially offering a sustainable, clean method of energy generation. Researchers discover microbes able to convert compounds released from coal directly into methane Composition of the bacterial communities found in coalbeds, some of which are responsible for producing natural gas from coal-derived and plant-derived compounds. Credit: Huang et al. Published in Nature Communications Explore further For more than a century, coalbeds have not only been a source of coal, but of natural gas as well. Until recently, it was thought that the natural gas in coalbeds formed millions of years ago, at the same time the coal itself was being formed. In recent years, however, scientists have discovered that there are microorganisms that currently live in coalbeds that feed on the hydrocarbons in the coal, and in doing so convert the coal into natural gas. Unfortunately, once the natural gas from coalbeds begins to be pumped from the wells, it becomes rapidly depleted within a few years. Research has shown that this depletion occurs because the microorganisms run out of bioavailable carbon content from the coal—essentially, they have nothing left to eat. While there have been several attempts to biostimulate the microorganisms with additional nutrients, in the end the microorganisms still require bioavailable carbon from the coal to continue producing natural gas.Now in a new study published in Nature Communications, researchers Zaixing Huang et al., from the University of Wyoming and Taiyuan University of Technology, have investigated whether the microorganisms living in coalbeds might expand their appetite to consume plant-derived carbohydrates in addition to coal. The researchers found that, when their diets were supplemented with carbohydrates from crops such as alfalfa, switch grass, miscanthus, and sugar beet, the microorganisms increased the production of natural gas. This is the first time it has been shown that microorganisms living in coalbeds can convert something other than coal into natural gas. “The greatest significance of the research is to show that renewable natural gas can be produced within geological formations with unprecedented scalability and meanwhile reduce the concentration of atmospheric carbon dioxide,” Huang told Phys.org. “There is the possibility to reduce the extent of heavy reliance on fossil fuels as primary energy and hence the opportunity of mitigating global warming.” © 2017 Phys.org Citation: Plant-consuming microorganisms produce low-carbon, renewable natural gas (2017, October 3) retrieved 18 August 2019 from https://phys.org/news/2017-10-plant-consuming-microorganisms-low-carbon-renewable-natural.html Journal information: Nature Communications As the researchers explain, the new process not only has the potential to increase the overall production rate of natural gas from coalbeds, but also to do so in a carbon-neutral or even carbon-negative way—that is, the process may take in more carbon than it releases. When the microorganisms use coal as a food source, the natural gas produced from the coal is considered carbon-positive, as the coal had been sequestered in the earth for millions of years. On the other hand, when the microorganisms use plants as a food source, the natural gas is considered carbon-neutral because the plants have only captured and fixed the carbon dioxide in the atmosphere into plant biomass (via photosynthesis) very recently. Further, some of the carbon injected into the coal seams is in the form of carbon dioxide gas. Since coal’s porous surface gives it a strong affinity for adsorbing gases, the coalbeds effectively serve as a carbon capture and storage facility. In this case, the process may become carbon-negative.Overall, the researchers expect that using plant-derived carbohydrates as an alternative carbon source to coal may offer a cleaner fuel than fossil fuels—both coal and the currently produced form of natural gas. With carbon credits, the process could also be economically viable, which may help bridge the gap between fossil fuels and renewable energy sources.In the future, the researchers plan to demonstrate the new method in test sites around the world.”The next step is to focus on field demonstration projects to evaluate the applicability of the technology in coalbeds,” Huang said. “The ultimate goal is to fully develop the technology so that it can be used universally, including for other geological formations. I hope the technology can be implemented and help developing countries in acquiring this affordable, clean renewable energy in the long run. Several sites (USA and Asia) have been selected as candidates for field demonstration. Preliminary studies and characterizations of these sites have started.” This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only.
A team of researchers with the University of Ottawa has used teleseismic data from on- and off-shore sensors to learn more about the low-viscosity layer (LVL) present in a northern part of the Cascadia subduction zone. In their paper published on the open access site Science Advances, the team reports on what they learned. Citation: New study sheds some light on the low-viscosity layer in the Cascadia subduction zone (2018, March 8) retrieved 18 August 2019 from https://phys.org/news/2018-03-low-viscosity-layer-cascadia-subduction-zone.html Explore further This document is subject to copyright. Apart from any fair dealing for the purpose of private study or research, no part may be reproduced without the written permission. The content is provided for information purposes only. A tectonic plate originating beneath the Pacific Ocean (off the northwest coast of the U.S. and southwest part of Canada) is slowly being pushed under the North American plate, forming the Cascadia subduction zone. Because of the instability in the area, earthquakes occur. But there has not been a major quake in the region since 1700, making geologists nervous as they try to predict when the next one might be. Complicating this work is a relative lack of seismic activity in the seismogenic zone. In this new effort, the researchers took a new approach to studying the zone—they used teleseismic data from sensors both onshore and offshore to study the low-viscosity layer.An LVL is a part of the subduction zone containing fluids that have been released from a subducting oceanic plate. Researchers study LVLs because they offer a means for studying subduction zones without using data from the seismogenic zone—seismic waves travel through them more slowly than other parts of the zone. The new teleseismic data offered a new perspective on the LVL that exists in the northern part of the Cascadia subduction zone. The researchers were able to see that the LVL does not extend into the locked zone, which is actually a good thing. Its presence would likely buffer Portland and Seattle during a major shift, resulting in less of an earthquake impact. The placement of the LVL, the team reports, is somewhat of a surprise, but it also helps explain a previously puzzling gap between the edges of the fault zone. The researchers also found that the LVL is very thick in the deeper parts of the interface between the two plates, suggesting it is well developed. © 2018 Phys.org Seafloor sediments appear to enhance earthquake and tsunami danger in Pacific Northwest More information: Pascal Audet et al. Fluid pressure and shear zone development over the locked to slow slip region in Cascadia, Science Advances (2018). DOI: 10.1126/sciadv.aar2982AbstractAt subduction zones, the deep seismogenic transition from a frictionally locked to steady sliding interface is thought to primarily reflect changes in rheology and fluid pressure and is generally located offshore. The development of fluid pressures within a seismic low-velocity layer (LVL) remains poorly constrained due to the scarcity of dense, continuous onshore-offshore broadband seismic arrays. We image the subducting Juan de Fuca oceanic plate in northern Cascadia using onshore-offshore teleseismic data and find that the signature of the LVL does not extend into the locked zone. Thickening of the LVL down dip where viscous creep dominates suggests that it represents the development of an increasingly thick and fluid-rich shear zone, enabled by fluid production in subducting oceanic crust. Further down dip, episodic tremor, and slip events occur in a region inferred to have locally increased fluid pressures, in agreement with electrical resistivity structure and numerical models of fault slip. Journal information: Science Advances Map of the Cascadia forearc region. Credit: Science Advances (2018). DOI: 10.1126/sciadv.aar2982
There are six free economic zones in Belarus — Brest, Vitebsk, Gomel-Raton, Grodnoinvest, Minsk and Mogilev. Foreign investors in FEZ subject to the system of state guarantees investment protection. For instance, FEZ Brest includes three sections — Kozlovichi, Airport, as well as the territory of the largest Brest enterprises located within the city limits. The main priorities are the creation of enterprises with high technology in the pharmaceutical, automotive, electronics, engineering and other industries.Vitebsk consists of 12 separate areas, called sectors. FEZ Gomel-Roton is located at the intersection of three international highways — Road Transport Corridor E9 – Helsinki – St. Petersburg – Gomel – Kiev – Sofia – Athens; international motorway Brest – Gomel – Bryansk – Voronezh – Rostov-on-Don and the international highway.
When did you start painting? How has the journey been so far?I started when I was four or five years old, as soon as I started understanding art. I used to borrow ideas from nature and sketch.What are the inspirations behind your paintings?I’m always attracted to soft, natural, delicate tones like you see in buds, butterflies, flowers, feathers and rivers. Working with dry pastels on canvas, my inspiration comes from the natural environment.My works are mostly in small formats, in mixed media, where use of pastel shows through in soft, soothing, serene hues. My work displays peace and tranquility in different forms. The abstract work is a display of life’s many moments which I cherish. Also Read – ‘Playing Jojo was emotionally exhausting’You have exhibited in various parts of the country. What response do you find at such places?I have exhibited at lots of places both nationally and internationally like various parts of India, South Korea, Singapore and my experience everywhere has been enriching. People have really appreciated my art and accepted my work with reverence.What is the inspiration behind the current exhibition?Behind ‘40 works of Hemant Rao’, are my different and varied experiences in life along with nature that keep on giving me new ideas and new dimensions. Also Read – Leslie doing new comedy special with NetflixBeing a self-taught artist, what are the ups and downs you have been through?I believe art comes naturally to you. I was born an artist. I really don’t feel any need to get formally trained by any institute. But yes, I would like to give credit to Prayag Shukla, my mentor, who has always shown me a different and unusual path that helps me.Any other exhibition that you are planning?I’m at the planning stage for my next works which are in 3D.What are your expectatiosn from art lovers?I would like to request all art lovers to keep on showing their love and support for young talents like me as their support acts as a great motivator.
Get ready to experience the authentic signatures dishes of North India and Pakistan as a new menu was introduced at Singh Sahib, Eros Hotel, Nehru Place. Along with the magical flavours of undivided Punjab, guests can now enjoy the Pakistani flavours along with live evening ghazals all month long. You can enjoy the aroma of fragrant spices that waft from the live kitchen as the expert chefs create authentic specialities such as raan peshawari, bhatti da murg and Amritsari macchi, meat beliram, rara murgh, chargah and many more.For the vegetarians, they have introduced an all-new Green Menu with a range of vegetarian delicacies like potohari challi kebab, bharta rawalpindi, dhingri kofta, paneer makai and more. For the get-togethers, three pre-set menus are introduces – khaas shakahari dawaat, sahib dawaat and sahib khaas dawaat, tailor-made for a special gathering with a choice of appetizers, soup, main course.