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Einstein’s Smile: A Tale of Two Pictures

By DAVID TOPPER In my previous story in the Jewish Post & News, “Einstein & Johanna: A True Tale of Tragic Comedy,’’ I began by saying that I first heard the name “Einstein” when I was around the age of 10.

Picture 1 Class picture with Albert Einstein (front row, 3rd fr. r.) during his time at the Luitpold-Gymnasium in Munich, Germany. 1890.


So let me begin this story when Albert himself was about that same age, and he had his class photo taken on the steps of his school. This picture is one of the earliest pictures we have of him – and it’s one of my favourites. It shows his all-boys class of 52 students lined-up in five rows. Einstein is in the front row, the third from the right, and clearly one of the smallest in the group.
The unique and utterly fascinating thing about this picture is this simple fact: all the other boys are looking grimly at the camera, while little Albert is the only one with a smile on his face. Look closely: all 51 others, with hands at their sides, appear stern, anxious, intimidated, sulky, or scared; Einstein, with hands behind his back, has a cute, little, slightly impish smirk on his face – unquestionably, a look that any parent would love. Just compare the detailed picture of him with the boys to his immediate sides : the contrast, indeed, is at once stunning and amusing.
Right here, in this astounding image (a mere class photo) is the visual manifestation of the laid-back contrarian that he would become throughout his life. In this one picture, knowing what I know about him, his whole life almost flashes forward before me. So, here, I wish to share a piece of this story with you.
As reported by those who knew him, Einstein was modest and unpretentious, without an iota of conceit or arrogance, treating all people in the same manner, independently of class or rank. He spoke the same way to a president as to a janitor. He also had a hearty laugh, with a child-like twinkle in his eye. OK, all this may be a bit of an exaggeration (sounding more like Santa Claus), but variations of these traits are persistently repeated among those who knew him and reminisce about his personality. He really was a down-to-earth guy. For example, he refused to travel first-class. Even when sent first-class tickets, he sat in third-class, driving the fastidious ticket-takers crazy.
I have a second picture to talk about. But before that, I want to see what else there is about his life that I can read into his class picture. What do we know about his early life that might help us? Best to begin at birth.
Albert Einstein (1879-1955) was born in a small town (Ulm) on the Danube River in south-western Germany to unobservant Jewish parents. Although the town today boasts of his birth, he was still an infant when the family moved to Munich, where he spent his formative years. His mother, Pauline, had a deep commitment to music, and she tried to instill that affection in her young son by forcing violin lessons on him. A love of music eventually sunk into his psyche around his transition to the teenage years, and Albert carried that commitment throughout his life. He exhibited his love of music by packing his violin on trips. Serious music, to him, was confined to the works of the “classical” period of what is called classical music, especially that of Mozart and Haydn, although he would happily dip back into the Baroque and J. S. Bach.
His father, Hermann, was a businessman who could have made a lot of money at the time because he was in the electrical business (motors and dynamos, for example), which was to the late-19th century what computer high-tech paraphernalia was to the late-20th century. But, just as the “dot.com” boom and bust resulted in some winners and many losers, most who made the effort in the electrical business did not achieve success. Hermann’s business went bust.
Albert’s sister, Marie (called Maja), was born when he was age two, and she was his only sibling. Maja, in a short memoir written in the early-1920s, is a crucial source of information about her brother’s childhood; this is important because there are many myths circulating through the media and beyond about Einstein’s youth. Today, many special interest groups wish to embrace Einstein as the poster boy for their various causes. Nonetheless, Einstein was not a slow learner, a vegetarian, left-handed, nor any of a range of idiosyncrasies that you will find in special-group websites on the Internet testifying that Einstein was one-of-them. Although his parents tutored him for his first year of school, he also was not “home schooled,” for he continued through the German school system until the age of 15, when he dropped out before graduating in his final year. Yes, Einstein was a high-school dropout, but I must confess that I have not yet come across a website of “High-School Dropouts” claiming Einstein as one-of-them.
Contrary to another myth, Maja reports that her brother was not a slow learner but was “a precocious young man” who had a “remarkable power of concentration,” such that he could “lose himself…completely in a problem.” Later, for Einstein the scientist, this youthful behavior was clearly repeated – like a leitmotif, throughout his scientific life.
It’s true that Albert detested the rigidity of the German way of teaching, but he still got good grades. Yet, he did not hide his feelings about the oppressive atmosphere of the classroom, so that one teacher went so far as to tell Albert’s parents that their son set a poor example for the other students by his overt hostility. This may cast some light on the special smile on his face in our photo, for it surely reveals the contrarian attitude on social mores that he displayed throughout his life. One obvious example: think of his lack of decorum in the grooming of his hair, which began in the 1930s.
An example of nonconformity of a different kind took place in his pre-teen years when he became extremely religious and admonished his anti-religious parents for not following the rules of Orthodox Judaism. This personal obsession lasted for a few years, to the consternation of Hermann and Pauline, only to disappear right before he would have been Bar Mitzvah. (It never happened.) In his very brief autobiography, written in 1947, he says that the reason for this quick change was his discovery of science and math, and for him the accompanying realization that the Bible was untrue. The result was an intellectual and emotional transformation. He viewed the religious outlook as subjective and solipsistic, whereas the scientific viewpoint was a route to objectivity and a liberation from what he called “the merely personal” – or subjectivity. He put it this way: “Beyond the self there is the vast world, which exists independently of human beings, and that stands before us like a great, eternal riddle, at least partially accessible to our inspection and thinking.” This statement acted as a maxim for his scientific endeavours to the end of his life.
But this is not the full story of his transformation: he added a socio-political element that is rather startling and remarkable for someone around age 12 or 13. He said he came to realize that “youth is intentionally being deceived by the state through lies” and that therefore a “mistrust of every kind of authority grew out of this experience.” These are profound and troubling views for someone at an age where most boys are more obsessed with sports and girls. Does this give us a hint at a deeper meaning of the smile in Photo 1? Maybe not, he was but 9 or 10 when the picture was taken. Nevertheless, it does give us a sense of continuity from here to the unconventional citizen we know later in life.
As we continue to pursue the question of the roots of his maverick ways, we find two episodes of interest at age 15 or 16. Both were triggered by the collapse of his father’s business, and the need for the family to move from Munich to the town of Pavia in northern Italy just south of Milan, where his father’s brother had a more successful business. Since Albert was in his last year of high school, he was placed in a boarding house in Munich while his parents and sister went on to Italy without him. Alone and feeling abandoned, he sank into a deep depression and had to leave school. But he had the wherewithal to obtain a letter from his math teacher saying that he completed that part of the curriculum. This was the first episode.
The other episode, however, might not have seemed very level-headed at the time. After crossing the German border, he applied to the government to renounce his German citizenship, making him a stateless person thereafter. Some scholars believe that in order to trigger such a desperate act, something almost elemental about German society had deeply troubled Einstein. We know he had major misgivings about the militaristic features of German society as expressed in the educational system. Or was it a reaction to his father’s loss of his livelihood, and the need to leave the country? His sister, Maja, however, had a simple answer: he was avoiding being drafted into the military.
Accordingly, as a high school dropout, Albert arrived at his parents’ residence in Italy, much to their surprise and surely their chagrin. We have no documentation about the inevitable confrontation between him and his parents, but we can be sure that there was a dispute around the question of what he was going to do with the rest of his life. We, of course, know the answer, in the long run. But even in the short run, there was some hope.
Let’s return to that letter in Albert’s pocket when he left Munich, and back up a few years to the non-Bar Mitzvah around age 12 or 13. The unperformed religious transformative rite was replaced by a different revelation – as mentioned, he developed a zeal for science and in particular the logical rigor of mathematical reasoning. Specifically, he was given a primer on geometry, and he devoured it – even trying to prove some theorems before he read the proofs in the book. The logical way that mathematical reasoning produced eternal proofs had a deep psychological impact on this young man, so much so that even when writing his autobiography around the age of 68, he referred to this early textbook as the “holy geometry book.” How revealing this metaphor is: especially when we realize that he was reading Euclid, instead of Torah, the original “holy” book. He went on to teach himself calculus and other higher mathematics, so that by the time he dropped out of school, he was well-grounded in the mathematics required for graduation and beyond. Hence, the letter in his pocket, mentioned above.
Albert’s father had plans for his son to be an engineer. This is no surprise, since he was in the electrical business, which he (correctly) believed was the wave of the future. In particular, he wanted his son to enroll in the Swiss Polytechnic Institute in Zürich, one of the best schools in Europe. As luck (fate?) would have it, a completed high school diploma was not necessarily required for enrollment in the Poly; instead, there were a series of rigorous exams administered by the Institute. It seems that the letter from the math teacher was a factor in placing him in the special category.
So, in the fall of 1895 he took the entrance exams – but flunked them. There was, however, a silver lining to this incident. He did so well on the science and math parts (no shock here) that the Institute’s director recommended that he spend a year doing some remedial studying. After all, he was applying to the Institute a year or two early for his age, since the regular age of admission was about 18 years old.
Einstein spent the next year at the Kanton Schule in the town of Aarau, just west of Zürich. The curriculum was based on the ideas of the great Swiss educator, J. H. Pestalozzi, who (among other things) emphasized using visual materials as well as written texts as educational tools, and especially stressed direct student-teacher interaction. For Einstein, it was a delightful and memorable year: he enjoyed learning in a formal setting for the first time in his life.
Indeed, it was sometime during that year of motivated learning that he came up with what would be his first great experiment in his head, what we call a “thought experiment.” This idea involved moving in space at the speed of light; essentially it was based on this question: What would the world look like if we rode on a beam of light? Perhaps the Pestalozzi emphasis on visualizing played a role here? Listen to the following remark about the school in Aarau that Einstein wrote 60 years later: “It made an unforgettable impression on me, thanks to its liberal spirit and the simple earnestness of the teachers who based themselves on no external authority.”
Ah ha, “no external authority”: such progressive and open-minded thinking was guaranteed to have an impact on Einstein who, as quoted, believed that “youth is intentionally being deceived by the state through lies” and that therefore a “mistrust of every kind of authority grew out of this experience.” This Swiss Kanton Schule was obviously nothing like the German schooling he had previously experienced. No wonder he graduated in the fall of 1896 with good grades.
The year at Aarau proved fruitful. Einstein’s admittance to the Swiss Polytechnic was based on his grades at Aarau, and although his father wanted him to study to become an engineer, he enrolled in physics and mathematics – and we know where it went from there.
One more thing about the Aarau year. There is a class photo of that small graduating class of 10 students. It’s not reproduced here, for no one is smiling. They all look relaxed, but serious too as they ponder their future. Einstein may be a bit more relaxed than the others, and he may be staring off into space much further than his fellow students – but I hesitate in reading anything more into it. Nonetheless, I do know this: once, when reminiscing about that key year in his life, he said that, while the other students at Aarau filled their spare-time by swigging copious quantities of beer, he drank from a different trough – diligently reading The Critique of Pure Reason, by Immanuel Kant. And that surely was nothing to smile about. (Incidentally, Einstein was a teetotaller all his life.)

Photo 2 “…from 1931, over four decades later. Here Einstein, now the celebrity, is at a reception in the German Chancellery in Berlin. From the left they are: Max Planck (the famous physicist), Ramsay MacDonald (British Prime Minister), Einstein, Hermann Schmitz (on Einstein’s immediate left), and Hermann Dietrich (German Finance Minister)”.

My key argument here is essentially about the role of pictures and what we can (or cannot) read into them. And this brings me to Photo 2 from 1931, over four decades later. Here Einstein, now the celebrity, is at a reception in the German Chancellery in Berlin. From the left they are: Max Planck (the famous physicist), Ramsay MacDonald (British Prime Minister), Einstein, Hermann Schmitz (on Einstein’s immediate left), and Hermann Dietrich (German Finance Minister).
I have no idea why these five men were seated together or what they were talking about. There are several extant pictures of this table-talk scene, which were taken by the pioneering photojournalist, Erich Salomon. I have chosen this one because it captures an animated Einstein speaking to the British Prime Minister. Notice the gesture with his cupped right-hand. It is a captivating image clearly displaying Einstein’s alert and smiling face, all in stark contrast to the serious, stern, and solemn visages of the other four. “Come on, guys – lighten up!” – I want to say with Einstein. Or, put differently: what’s there not to like about this Einstein fellow trying to cheer-up a much too formal table? Is it not clear why I am juxtaposing this 1931 picture with the smiling boy in school? And so, it seems that a story that began with a smile appears to end with a smile.
But not so fast.
The second picture is from 1931, and two years later Hitler will control the country. Serious looking Hermann Schmitz was from I.G. Farben, the chemical company that would become notorious for its role in developing Zyklon B used in the gas chambers in the Extermination Camps, and for this Herr Schmitz spent time in prison after World War II for Nazi war crimes.
Planck’s son, Erwin – who was also present at this formal affair but is not in this picture – was later executed by the Nazis as part of the plot to assassinate Hitler on July 20, 1944.
And then there’s the photographer Erich Salomon (b.1886). He died in 1944 in Auschwitz, which was supplied with chemicals from I.G. Farben.
The result is that Photo 2 is deeply laden with painful meaning, and I can never again see this picture with that initial innocence I had the first time I smiled along with Einstein as he made a point to the British Prime Minister. Such is the nature of images and the interaction and interdependence of our eyes and minds. To use an analogy: pictures are as much read they are as seen. And so, knowing what we know about Photo 2, there is nothing

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Features

Hacker and Fraud Prevention for Online Gambling Profiles

Safeguard your online casino & sports betting accounts from cyber threats

Follow these 10 vital steps to reinforce your online gambling profile by enabling two-factor authentication, using VPNs, unique passwords and more.

With the global online gambling market projected to reach over $100 billion by 2026, securing your online casino and sportsbook accounts is more critical than ever. As digital wallets swell with winnings so too does the motivation for cybercriminals to steal credentials and loot accounts.

#1. Activate Two-Factor Authentication

Topping the list is two-factor authentication (2FA) – requiring two credentials to login instead of one at FanDuel. Often this entails providing your password plus a one-time code sent via SMS or email.

Per an Oracle study, implementing 2FA would have thwarted 99% of historical cyber attacks that involved stolen credentials.

Most regulated online gambling sites offer 2FA, accessible under account settings. Turn it on immediately for stronger defense.

#2. Never Reuse or Recycle Passwords 

A cardinal sin is recycling the same password across multiple sites or services. Once one account is breached, cyber thieves can access more accounts using that same password.

To avoid this, every account deserves a unique, strong password. For simplicity, utilize a password manager app to randomly generate and store site-specific passwords.

#3. Install a VPN for Public Wi-Fi Access 

When playing online casino games on shared/open wireless networks, your data flows openly and risks interception. That’s where virtual private networks (VPNs) come in.

VPNs encrypt all network traffic to and from your device. This protects your gambling activity and account credentials from Wi-Fi eavesdroppers. VPNs also disguise your IP address.

Some top-rated services include NordVPN, ExpressVPN and CyberGhost.

#4. Keep Software Updated & Run Anti-Virus Scans 

You must keep computers and mobile devices updated with the latest OS and security patches. Postponing critical updates leaves open dangerous holes that malware exploits.

Likewise run reputable anti-virus scans to catch viruses attempting to infiltrate systems and spy on login credentials for financial accounts.

#5. Verify the Security & Encryption of Sites 

When signing up at online betting sites and casinos, verify the legitimacy of their security measures:

  • Confirm the address starts with HTTPS, not HTTP
  • Check that data transmissions are encrypted using at least 128-bit SSL
  • Ensure site has proper licensing
  • Review privacy policy for data storage and sharing

Reputable sites will display trust badges from companies like Norton and TrustE.

#6. Avoid Account Sharing 

While tempting to give friends or relatives access to funded accounts, sharing login credentials is extremely risky. You lose control over deposits/withdrawals while exposing yourself to potential theft.

Instead, gift deposits to other player accounts or refer them to open their own secure accounts.

#7. Beware Account Takeover Scams 

Exercise caution if contacted unexpectedly about unusual account activity. Savvy scammers will pretend a breach occurred to trick you into handing over your username and password.

If concerned about account integrity, directly access the site yourself and contact customer support – don’t click any links in unsolicited emails.

#8. Monitor Financial Statements

Carefully review online betting account and credit card statements to detect unauthorized transactions right away. Dispute unrecognized activity ASAP to limit losses.

For further vigilance, some banks offer real-time purchase alerts via email or SMS.

#9. Don’t Save Payment Info 

Saving credit card or e-wallet details on gambling sites for faster future deposits also expedites withdrawals – by you and potentially hackers.

Instead, manually enter payment info each time to contain potential damage from any account infiltration.

#10. Create a Secure Email 

A strong yet oft-overlooked defense is creating a secure email account strictly for gambling transactions. Keep it completely separate from your personal email to isolate threats.

Use a nickname, enable 2FA and establish a strong password using special characters, numbers, case changes and 15+ letters.

Table: Comparison of Top VPNs for Online Gambling Site Security

VPN ServiceEncryption StandardNumber of Server LocationsAllows P2P TrafficNumber of Simultaneous ConnectionsMoney Back Guarantee
NordVPNAES 256-bit5400+Yes630 days
ExpressVPNAES 256-bit3000+Yes530 days
CyberGhostAES 256-bit7400+Yes745 days

Fortify Your Online Gambling Fortress 

As online casinos and sportsbooks explode in popularity, no player is immune to the growing plague of cyber fraud and account theft.

Guard your profile by enabling two-factor authentication, setting strong passwords, installing critical software updates and more. Also research site security measures and payment options.

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Features

Vital Role of True Randomness in Modern Computing

The critical need for true randomness in cryptography, simulations, and more

True randomness is essential for encryption, statistical sampling, simulations, and more computing applications to work effectively. We explore why.

The concept of randomness often evokes thoughts of unpredictability and chance occurrences. However in the world of computing, having access to true randomness is vital for many critical applications to function properly. Without the ability to generate random values and data, key aspects of modern technology simply would not work reliably.

In this article, we will explore what constitutes true randomness from a computational perspective, why it is crucially important, and some of the ways that software and hardware attempt to produce randomness reliably. Gaining insight into this topic highlights the dependence much of digital functionality has on the availability of non-deterministic, uniformly distributed random data.

What Makes Randomness “True”?

For data to be considered truly random from an information theory perspective, values must satisfy key mathematical and statistical qualities, for example at Lucky Seven Casino. True randomness implies meeting three core criteria:

  • Uniform distribution — All potential values have an equal probability of occurring so that no bias exists towards certain numbers.
  • Independence — The value at any position does not relate to or depends on values at other positions. Previous numbers do not influence future ones.
  • Unpredictability — Knowing some values provides no useful information to predict other values. Guessing upcoming numbers is mathematically impossible.

Hence, true randomness requires generated data featuring high entropy (information density) with no observable patterns or correlations over any length or time period analyzed. Values must pass various statisticatests of randomness to qualify. True randomness exists only in specific natural phenomena scientists believe exhibit fundamental uncertainty such as radioactive decay. Computational methods can attempt to produce randomness but technically generate only an approximation usually called pseudo-randomness. However for many practical purposes, computationally generated randomness proves sufficient if it passes robust statistical testing.

Why True Randomness Matters Cryptography 

Arguably, the area with the most crucial dependence on true randomness is cryptography. All modern encryption technologies require random number generation to ensure security. Encryption systems work by utilizing random numbers for:

  • Key generation
  • Initialization vectors
  • Salts
  • Nonces
  • Padding

Any bias, predictability or correlation within random values used for the above purposes significantly compromises encryption protocols and introduces vulnerabilities. With trillions of dollars transferred online daily and vast amounts of sensitive data stored digitally, safeguarding cryptography requires high-quality random number generation rooted in solid entropy sources.

Simulations & Modeling 

Outside of security, many more computing applications need randomness to operate correctly per their design intent. Monte Carlo simulations extensively utilize randomness to model complex real-world behaviors by running many iterations with differing random inputs. Financial analysis, climate modeling, nuclear reactions and molecular behavior represent common Monte Carlo simulation applications.

Games, Artificial Intelligence & Machine Learning 

Gaming, AI and ML commonly incorporate randomness to increase variation, introduce unpredictability, and improve realism. For example, non-player characters in video games use randomness for movement, dialog and behavior to feel more lifelike and less robotic. AI/ML leverage randomness to train networks more thoroughly against a wider possibility space and build more resilient models less prone to biases.

Generating True Randomness via Hardware 

Given the pervasive need for genuine randomness across computing, how do software and hardware reliably produce it? Most systems today use either specialized hardware random number generators or hybrid combinations of hardware and software.

Hardware options utilize the inherent randomness within low-level physical phenomena to produce entropy. Different techniques for generating randomness exist but most hardware implementations focus on three main sources:

  1. Thermal Noise
  2. Semiconductor Quantum Physics
  3. Chaotic Oscillator Outputs
Generator TypeDescription
Thermal NoiseAmplifies and extracts random electrical noise from resistor thermal vibrations
Quantum PhysicsLeverages quantum mechanical properties like photon emission timing from LEDs/lasers
Chaotic CircuitsUses unpredictable oscillator circuit outputs from chaos theory

Semiconductor-based solutions can generate high bitrates up to 5Gbps using compact modern chip fabrication allowing extensive harvestingof entropy. However these sources derive from complex, random physical processes proving impossible to predict or fully model mathematically. This unpredictability provides excellent entropy quality unattainable via software algorithms alone.

Most general-purpose computers now integrate random number generators within CPUs allowing applications access to decent hardware-based random data. For the highest security use cases, dedicated standalone hardware random number generators exist exceeding >100Gbps speeds. Hence accessing genuine randomness is available today even on common computing devices.

Cryptographically Secure Pseudo-Random Number Generators 

While hardware mechanisms utilize hard-to-predict physical phenomena to produce randomness, software solutions must take a different approach. Algorithmically-generated randomness cannot achieve true randomness from a physics perspective. However clever mathematical techniques like cyclical algorithms can generate randomness passing many statistical tests of randomness within their output bit length limits.

Cryptographically secure pseudo-random number generators (CSPRNG) serve as the premier software-based method for generating randomness. CSPRNGs work by repeatedly applying cryptographic primitives like hash or cipher functions on initial random seed values. This process produces a chain of output bits not reproducible without the original seed key. Leading CSPRNG algorithms include:

  • Hash_DRBG
  • HMAC_DRBG
  • CTR_DRBG

Software libraries implement these CSPRNGs so developers can integrate quality randomness into applications with proper seeding. Seeding establishes the initial starting point for randomness generation using an entropy source like hardware random number generators or timing variability.

CSPRNGs allow the production of vast quantities of randomized data for any purpose needed. Compared to hardware mechanisms limited by physics on maximum speeds, algorithms scale boundlessly in the bits created as long as adequate computational power exists.

Yet key differences between software and hardware randomness remain. While CSPRNG outputs pass statistical testing and contain no observable patterns, their pseudo-randomness means given the same seed, the exact same value sequence will generate each time. Also, if a CSPRNG algorithm or implementation has flaws, adversaries could predict and exploit output resulting in compromised security. Still, with proper cryptographic design and regular reseeding, CSPRNGs provide quality randomness for most software needs.

Conclusion

From the above exploration, we see true randomness plays a pivotal role across computing – from cybersecurity to simulations and beyond. While no substitutes for true physically-derived entropy exist, modern hardware and hybrid hardware-software solutions provide abundant randomness for practical usage.

However as computing continues evolving with new technologies like quantum, ensuring high-quality randomness generation tackles emerging information security and system reliability challenges. Access to ample true randomness stands necessary now for current computing functionality and lays the foundation for future innovation.

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Features

News from Israeli hotels

Roy Avidor new GM at The Ritz-Carlton, Herzliya

Introduction: The current wars in Gaza and Lebanon have had a disastrous effect on Israeli tourism. Recently we were contacted by a friend in the advertising business in Israel who asked us whether we would help to promote a couple of well-known Israeli hotels – who are hoping for a huge rebound in bookings once the wars come to an end.

Here is news about two leading Israeli hotels:

Mr. Roy Avidor is the new GM at The Ritz-Carlton, Herzliya.

We are delighted to welcome Roy Avidor as the new General Manager of The Ritz-Carlton, Herzliya!

Roy brings over a decade of leadership in the international hospitality industry, with a proven track record of operational excellence.

Most recently, Roy served as Director of Operations at the Sheraton Grand Tel Aviv, where he oversaw daily operations across multiple departments, always ensuring the highest standards of service. Prior to that, he held management positions at Celebrity Cruise Line and Isrotel Hotel Chain.

Roy’s extensive background in luxury hospitality, combined with his passion for service, makes him the perfect addition to our team and to his newest position as General Manager.

Boaz Elani Appointed General Manager of Sheraton Grand Hotel Tel Aviv

Boaz Elani has been named the new General Manager of the Sheraton Grand Hotel Tel Aviv, a prestigious property within the global luxury Marriott portfolio.

Bringing extensive expertise in luxury hospitality, Boaz most recently served as the General Manager of the Ritz-Carlton Herzliya, also part of the Marriott group. During his three-year tenure, he successfully navigated the hotel through two major challenges: the COVID-19 pandemic and the conflict in Israel. His steadfast dedication to exceptional service significantly enhanced guest satisfaction, solidifying the hotel’s reputation as a premier destination.

“I am honored by Marriott’s trust in me and thrilled to join the Sheraton Grand Tel Aviv team,” said Boaz. “This hotel holds a distinguished place as one of Israel’s finest and most iconic. Following its comprehensive renovation, we are committed to delivering unmatched experiences for our guests and continuing its tradition of excellence.”

The Sheraton Grand Tel Aviv, overlooking the Mediterranean, features 320 beautifully redesigned rooms, including premium, deluxe, and club accommodations, along with luxurious suites. Guests staying in club-level rooms enjoy exclusive access to the 18th-floor lounge, offering breathtaking sea views. The recent renovations incorporate modern aesthetics with natural, seaside-inspired materials, creating a serene and inviting ambiance.

The hotel boasts a range of world-class amenities, including a newly updated beachfront pool, a popular sushi bar open to both guests and the public, and a renowned gourmet breakfast. Its versatile meeting spaces and state-of-the-art conference halls have garnered international acclaim, earning it the 2024 World MICE Award for Best Event and Conference Hotel.

In line with Marriott’s global commitment to sustainability, the Sheraton Grand Tel Aviv has held Green Key Certification since 2014, highlighting its dedication to environmentally responsible practices.

With Boaz Elani at the helm, the Sheraton Grand Tel Aviv is poised to further elevate its status as a premier destination for both leisure and business travelers.

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