The Akai CD3000XL is a professional digital sampler launched by Akai in late 1996. It supports stereo or mono sampling at frequencies of 22khz, 44.1khz, and 48khz, with a resolution of 16 bits. It comes as standard with 8MB of built-in RAM, expandable to 48MB with a combination of 72-pin SIMMs and internal flash memory.
The CD3000XL shares with the earlier Akai CD3000 a built-in, four-speed CD-ROM drive, in addition to a 3.5" floppy drive that reads Akai-formatted floppies, and a SCSI port that allows for connection to external storage devices. Whereas the CD3000 could only sample from its internal CD-ROM drive the CD3000XL adds support for sampling from a pair of 1/4" balanced audio inputs and a pair of RCA-style SPDIF I/O ports. For audio output the CD3000XL has eight unbalanced 1/4" audio jacks in addition to a standard stereo pair.
The CD3000XL can be upgraded internally with the Akai EB16 Effects Board, which adds four channels of multi-effects, including reverb and chorus. It can also be upgraded with the IB-304F filter board, which adds a second 12db/octave resonant digital filter and the ability to record stereo audio to an internal hard drive. The CD3000XL also supports internal playback of SMF Standard MIDI Files. It can be connected to a standard desktop PC with SCSI, which allows the use of Akai's MESA software to edit samples on the CD3000XL.
In common with contemporary Akai units such as the Akai S3000XL and S3000, the CD3000XL can automatically loop samples and perform offline time-stretching and resampling.
Options
*Akai EB16 SampleVerb 4 × 50 effects board
*Akai FMX 008 8MB Non-Volatile Flash ROM
*Akai IB304f ProFilter filter board
*Akai KIT-SHD524 Hard disk drive installation kit
*Akai MESA editor
The CD3000XL shares with the earlier Akai CD3000 a built-in, four-speed CD-ROM drive, in addition to a 3.5" floppy drive that reads Akai-formatted floppies, and a SCSI port that allows for connection to external storage devices. Whereas the CD3000 could only sample from its internal CD-ROM drive the CD3000XL adds support for sampling from a pair of 1/4" balanced audio inputs and a pair of RCA-style SPDIF I/O ports. For audio output the CD3000XL has eight unbalanced 1/4" audio jacks in addition to a standard stereo pair.
The CD3000XL can be upgraded internally with the Akai EB16 Effects Board, which adds four channels of multi-effects, including reverb and chorus. It can also be upgraded with the IB-304F filter board, which adds a second 12db/octave resonant digital filter and the ability to record stereo audio to an internal hard drive. The CD3000XL also supports internal playback of SMF Standard MIDI Files. It can be connected to a standard desktop PC with SCSI, which allows the use of Akai's MESA software to edit samples on the CD3000XL.
In common with contemporary Akai units such as the Akai S3000XL and S3000, the CD3000XL can automatically loop samples and perform offline time-stretching and resampling.
Options
*Akai EB16 SampleVerb 4 × 50 effects board
*Akai FMX 008 8MB Non-Volatile Flash ROM
*Akai IB304f ProFilter filter board
*Akai KIT-SHD524 Hard disk drive installation kit
*Akai MESA editor
Ikhtiyor Rakhman (born June 27, 1991) is an Uzbek journalist, media trainer and factchecker who is currently chief correspondent for Interfax.uz and founder of Factchecking.uz in Uzbekistan. In 2017, he founded the news site Korrespondent.uz in Uzbekistan but left the project in 2020.
Life and career
Ikhtiyor was born in Tashkent region in 1991. He is a participant of the 2019 U.S. Department of State IVLP program. As part of the program, he has been to several media outlets in the United States, particularly the Associated Press. In 2019, Rakhman presented the Factcheck blog, which also fights against fake news in Uzbekistan, at an anti-fake training in Central Asia organized by the US Embassy in Dushanbe, Tajikistan.
Rakhman sharply criticized the Commission for Combatting Coronavirus in Uzbekistan in 2020 during an interview with The Diplomat.
Education
In 2020 he started his bachelor's degree at University of Journalism and Mass Communication of Uzbekistan, majoring Public relations. Moreover, he attended Webster University in Tashkent for the special courses of "English for professionals in Mass-media" organized by the US Embassy in Tashkent.
Life and career
Ikhtiyor was born in Tashkent region in 1991. He is a participant of the 2019 U.S. Department of State IVLP program. As part of the program, he has been to several media outlets in the United States, particularly the Associated Press. In 2019, Rakhman presented the Factcheck blog, which also fights against fake news in Uzbekistan, at an anti-fake training in Central Asia organized by the US Embassy in Dushanbe, Tajikistan.
Rakhman sharply criticized the Commission for Combatting Coronavirus in Uzbekistan in 2020 during an interview with The Diplomat.
Education
In 2020 he started his bachelor's degree at University of Journalism and Mass Communication of Uzbekistan, majoring Public relations. Moreover, he attended Webster University in Tashkent for the special courses of "English for professionals in Mass-media" organized by the US Embassy in Tashkent.
Xerosydryle is a new class of materials, solid at ambient pressure and temperature, deriving from the supramolecular organization of liquid water.
The fundamental molecular constituent of xerosydryle is water (H<sub>2</sub>O), and it is found in liquid water, mixed with it. It has been observed aggregated in small volumes (domains), and it can be separated from liquid water and accumulated in clumps, with the appropriate techniques. The accumulated clumps of xerosydryle appear as a white-ish fluffy, dry substance, stable over time and at high temperature: it can be heated up to 950 °C and preserve 10 - 30% of the initial mass. The clumps of dry xerosydryle, once separated, are easily soluble back in water.
Xerosydryle, as a new material, has only recently been clearly identified with a name of its own. However has already caught the attention of the scientific community, and has been referenced in few publications.
Historical background
As early as late 1960s and early 1970s, the researcher Drost-Hansen reported the first observations of a different behavior of water molecules close to the walls of its container later called exclusion zone, collecting findings of many earlier experiments.
In 1986 Deryagin and his colleagues observed an exclusion zone next to the walls of biological cells.
In 2006 the group of Gerald Pollack reported their observations, and used for the first time the term exclusion zone. They observed that the particles of colloidal and molecular solutes suspended in aqueous solution are excluded from a layer of volume next to hydrophilic surfaces. The exclusion zone has been observed and characterized by several independent groups since those early observations.
Starting from 2013 the research group of Vittorio Elia and Roberto Germano, following the path of their preceding research, and in collaboration with other international researchers, reproduced also the observations of the exclusion zone done by Gerald Pollack, and extended that research, developing a protocol to separate and collect a dry residual from pure water, after putting it in contact with different hydrophilic materials (see preparation techniques). They have advanced the hypothesis that the clumps of white solid material that they can extract from pure water consist of clumps of the same supramolecular structures of pure water that constitute the exclusion zone.
Theoretical model
The generation of these sovramolecular H<sub>2</sub>O nanoclusters that are solid at ambient pressure and temperature is placed by Roberto Germano in the frame of the QED applied to the solid state physics, starting from the structure of the liquid water as derived by the quantum electrodynamical calculations shown by Emilio Del Giudice and his colleagues in 2013.
In these calculations comes out that liquid bulk water has a two phase structure: one phase is in a gas-similar state with molecules that have weak bonds between them. The other phase is composed by small volumes in the bulk (called coherence domains) where the water molecules are in a different state, oscillating in phase among two energetic levels. This state (coherent state ) should be described by quantum mechanics and quantum electrodynamics. The cloud of electrons of the water molecules superstructure oscillate between two quantum states: (a) a ground state, and (b) an excited state. In the excited state one electron per molecule has a higher energy and is almost free (with a binding energy of about 0.5 eV). This coherent state is a quantum superposition of the two states (a) and (b), and the quantum superposition has a component with coefficient 0.9 of the ground state, and a component with 0.1 of the excited state. The electrons in this quantum state oscillate between the ground state and the excited state with a certain frequency, and this oscillation creates an electromagnetic field, which is confined within the super-molecular structure, so that no radiation is observed.<ref name"DelGiudice2013" /><ref name"Elia2022" />
Preparation techniques
Here is the procedure to obtain the solid and dry xerosydryle.
The start is ultrapure water.
Then, a piece of hydrophilic material is immersed in the water. The material can be e.g. hydrophilic cotton, cellophane, Nafion. The water and the hydrophilic material are kept in a container for 15 or 30 minutes.
The water is then squeezed away from the material, and released back in the container, with hands, wearing polyethylene gloves.
The specimen of hydrophilic material is dried at room conditions, and a small sample of water is taken from the container, for measurements.
After around 12 hours the cycle is repeated, immersing the sample in the water container, letting interact, and removing.
The cycles are repeated for several tens of times.<ref name"Elia2018"/><ref name"Elia2019"/>
Finally, to remove the liquid water, a process of lyophilization is applied, i.e. a cycle of freezing below the triple point and then drying by sublimation.
After the lyophilization, a solid residue is collected. This solid residue can be as much as few grams per 1 liter of initial pure water, equivalent to some kg for m of initial pure water .<ref name="Elia2020" />
Excluding impurities as cause for the aggregate
In all the experimental procedures, a great effort is taken in avoiding to contaminate the water.
Moreover, many measurements are performed, and some arguments are presented, to exclude that the solid xerosydryle material extracted is somehow due to the impurities still present in the water sample.
* A growth of the electric conductivity is measured in the water, while the subsequent cycles of interaction with the hydrophilic material are performed. This growth could be due to impurities theoretically coming from the material itself, e.g. ions (chemically inert materials are used, anyway). However, in this case the number of dissolving ions should diminish exponentially. Since the increase of conductivity grows also after many cycles of interaction, this leads to exclude the impurities as cause.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
* Experiments have been performed using two techniques: (a) reusing the same sample of hydrophilic material for all the cycles, or (b) using a new sample for each cycle. The behavior of all the chemical and physical parameters measured are the same in the two cases. This also leads to the exclusion of pollutants from the hydrophilic material as cause of the phenomenon of xerosydryle generation.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
* The order of magnitude of the increase of the electric conductivity of the water, after the procedure of interaction with hydrophilic material is of the order of 10 up to 10 : the electric conductivity of pure water, at the beginning, is about 1 or 2 μS/cm, and at the end of the cycles can reach values up to 7 x 10 μS/cm. To obtain a similar increase adding electrolytes, an amount of several grams per liter of electrolytic material would be needed. However, measurements of presence of electrolytes has been performed on the water at the end of the cycles, using ion chromatography. Those measurements report a presence of electrolytes lower than the detection limit, which is 0.1 mg per liter.<ref name"Elia2019" /><ref name"Elia2020" />
* The electric conductivity of the sample, at the end of the interaction cycles, is monitored over long periods of time (more than two years), and large increases, decreases, and new increases of this parameter are observed. This behavior, and in particular the re-increase after the decrease, cannot be explained by the presence of impurities, since the specimen is kept in sealed containers. not assignable to impurities.<ref name"Elia2019" /><ref name"Elia2020" />
* Some chemical-physical measurements, called conductometric titration and calorimetric titrations, and other analytical measurements, such as mass spectrometry, can also exclude that the data observed are due to the presence of impurities.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
The fundamental molecular constituent of xerosydryle is water (H<sub>2</sub>O), and it is found in liquid water, mixed with it. It has been observed aggregated in small volumes (domains), and it can be separated from liquid water and accumulated in clumps, with the appropriate techniques. The accumulated clumps of xerosydryle appear as a white-ish fluffy, dry substance, stable over time and at high temperature: it can be heated up to 950 °C and preserve 10 - 30% of the initial mass. The clumps of dry xerosydryle, once separated, are easily soluble back in water.
Xerosydryle, as a new material, has only recently been clearly identified with a name of its own. However has already caught the attention of the scientific community, and has been referenced in few publications.
Historical background
As early as late 1960s and early 1970s, the researcher Drost-Hansen reported the first observations of a different behavior of water molecules close to the walls of its container later called exclusion zone, collecting findings of many earlier experiments.
In 1986 Deryagin and his colleagues observed an exclusion zone next to the walls of biological cells.
In 2006 the group of Gerald Pollack reported their observations, and used for the first time the term exclusion zone. They observed that the particles of colloidal and molecular solutes suspended in aqueous solution are excluded from a layer of volume next to hydrophilic surfaces. The exclusion zone has been observed and characterized by several independent groups since those early observations.
Starting from 2013 the research group of Vittorio Elia and Roberto Germano, following the path of their preceding research, and in collaboration with other international researchers, reproduced also the observations of the exclusion zone done by Gerald Pollack, and extended that research, developing a protocol to separate and collect a dry residual from pure water, after putting it in contact with different hydrophilic materials (see preparation techniques). They have advanced the hypothesis that the clumps of white solid material that they can extract from pure water consist of clumps of the same supramolecular structures of pure water that constitute the exclusion zone.
Theoretical model
The generation of these sovramolecular H<sub>2</sub>O nanoclusters that are solid at ambient pressure and temperature is placed by Roberto Germano in the frame of the QED applied to the solid state physics, starting from the structure of the liquid water as derived by the quantum electrodynamical calculations shown by Emilio Del Giudice and his colleagues in 2013.
In these calculations comes out that liquid bulk water has a two phase structure: one phase is in a gas-similar state with molecules that have weak bonds between them. The other phase is composed by small volumes in the bulk (called coherence domains) where the water molecules are in a different state, oscillating in phase among two energetic levels. This state (coherent state ) should be described by quantum mechanics and quantum electrodynamics. The cloud of electrons of the water molecules superstructure oscillate between two quantum states: (a) a ground state, and (b) an excited state. In the excited state one electron per molecule has a higher energy and is almost free (with a binding energy of about 0.5 eV). This coherent state is a quantum superposition of the two states (a) and (b), and the quantum superposition has a component with coefficient 0.9 of the ground state, and a component with 0.1 of the excited state. The electrons in this quantum state oscillate between the ground state and the excited state with a certain frequency, and this oscillation creates an electromagnetic field, which is confined within the super-molecular structure, so that no radiation is observed.<ref name"DelGiudice2013" /><ref name"Elia2022" />
Preparation techniques
Here is the procedure to obtain the solid and dry xerosydryle.
The start is ultrapure water.
Then, a piece of hydrophilic material is immersed in the water. The material can be e.g. hydrophilic cotton, cellophane, Nafion. The water and the hydrophilic material are kept in a container for 15 or 30 minutes.
The water is then squeezed away from the material, and released back in the container, with hands, wearing polyethylene gloves.
The specimen of hydrophilic material is dried at room conditions, and a small sample of water is taken from the container, for measurements.
After around 12 hours the cycle is repeated, immersing the sample in the water container, letting interact, and removing.
The cycles are repeated for several tens of times.<ref name"Elia2018"/><ref name"Elia2019"/>
Finally, to remove the liquid water, a process of lyophilization is applied, i.e. a cycle of freezing below the triple point and then drying by sublimation.
After the lyophilization, a solid residue is collected. This solid residue can be as much as few grams per 1 liter of initial pure water, equivalent to some kg for m of initial pure water .<ref name="Elia2020" />
Excluding impurities as cause for the aggregate
In all the experimental procedures, a great effort is taken in avoiding to contaminate the water.
Moreover, many measurements are performed, and some arguments are presented, to exclude that the solid xerosydryle material extracted is somehow due to the impurities still present in the water sample.
* A growth of the electric conductivity is measured in the water, while the subsequent cycles of interaction with the hydrophilic material are performed. This growth could be due to impurities theoretically coming from the material itself, e.g. ions (chemically inert materials are used, anyway). However, in this case the number of dissolving ions should diminish exponentially. Since the increase of conductivity grows also after many cycles of interaction, this leads to exclude the impurities as cause.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
* Experiments have been performed using two techniques: (a) reusing the same sample of hydrophilic material for all the cycles, or (b) using a new sample for each cycle. The behavior of all the chemical and physical parameters measured are the same in the two cases. This also leads to the exclusion of pollutants from the hydrophilic material as cause of the phenomenon of xerosydryle generation.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
* The order of magnitude of the increase of the electric conductivity of the water, after the procedure of interaction with hydrophilic material is of the order of 10 up to 10 : the electric conductivity of pure water, at the beginning, is about 1 or 2 μS/cm, and at the end of the cycles can reach values up to 7 x 10 μS/cm. To obtain a similar increase adding electrolytes, an amount of several grams per liter of electrolytic material would be needed. However, measurements of presence of electrolytes has been performed on the water at the end of the cycles, using ion chromatography. Those measurements report a presence of electrolytes lower than the detection limit, which is 0.1 mg per liter.<ref name"Elia2019" /><ref name"Elia2020" />
* The electric conductivity of the sample, at the end of the interaction cycles, is monitored over long periods of time (more than two years), and large increases, decreases, and new increases of this parameter are observed. This behavior, and in particular the re-increase after the decrease, cannot be explained by the presence of impurities, since the specimen is kept in sealed containers. not assignable to impurities.<ref name"Elia2019" /><ref name"Elia2020" />
* Some chemical-physical measurements, called conductometric titration and calorimetric titrations, and other analytical measurements, such as mass spectrometry, can also exclude that the data observed are due to the presence of impurities.<ref name"Elia2018" /><ref name"Elia2019" /><ref name="Elia2020" />
Paul Okhrem is an IT entrepreneur experienced in digital product development and e-commerce. He is the CEO and co-founder of Elogic Commerce software development company and Uvik Software staff augmentation agency.
Early life and education
Paul Okhrem was born and raised in Chernivtsi, a little town in West Ukraine characterized by its cultural diversity and Austro-Hungarian architecture. As a child, he attended school No.1 in Chernivtsi and later switched to Chernivtsi Medical Liceum No.3. Still, his only passion since early childhood was technology.
In 2007, Paul got his first gig reinstalling Microsoft Windows for friends and acquaintances. Later, he got keen on WAP application development which allowed downloading music, images, and games and brought him his first money.
Eventually, Paul committed to technology and earned a Master’s Degree in Information Technology from Yuriy Fedkovych Chernivtsi National University in 2014 while already managing a small company founded during his university studies.
Another milestone in Paul’s education was an educational 2-month program of the Norwegian - Ukrainian Chamber of Commerce which sifted through the best 15 ambitious young entrepreneurs to study at Nord University, Bodø, Norway. The program also comprised lectures from the leading entrepreneurs of Norway and Ukraine, which gave Paul a solid understanding of the international markets.
Paul also participated in the Strategic Business Management program by SIDA (Swedish International Development Agency) where he got priceless strategic management experience and the opportunity to learn from the best professors at the Stockholm School of Economics. Only six people were chosen for a program out of 200, and Paul was among the shortlisted candidates. The program took place in three phases in Stockholm, Kyiv, and Vlorë and allowed Paul to create the strategic plan for his first startup, Elogic Commerce.
As a teenager, Paul also spent much time doing sports. Boxing became his hobby which led him to participate in regional contests. At present, Paul is also keen on tennis and mountain biking.
Career
Hess Incorporated and Macy’s
In 2011, Paul participated in a student exchange program called Work and Travel USA which gave him his first job as a Sales Associate. At Hess Incorporated, Paul gained much practice in interpersonal communication and a deeper understanding of the US business culture. Meanwhile, he also got a side job at Macy’s as a sales associate which gave him priceless experience selling luxury goods and communicating with high-end clients.
MTA (Multimedia)
In 2012, Paul was also a part of the multimedia and consumer technology company MTA. He was impressed that every employee would go through the intensive training course during their probation period, so he later adopted this approach in Elogic Academy.
Elogic Commerce
Paul started his first business, Elogic Commerce, in 2009 in collaboration with his friend and colleague Igor Iakovliev. The company is operating in the ecommerce industry and specializes in building, designing, and optimizing online stores. Under the supervision of Paul, the firm grew to 200+ ecommerce professionals and expanded its tech stack, services, and partnerships.
The company’s customers included big consulting agencies like Accenture as well as global retailers, such as Hanes Brands Inc., Univerre Group Switzerland, Carbon38, etc.
Uvik Software
In 2015, Okrem became the CEO of yet another venture, Uvik Software. The company provides IT staff augmentation services and sources back-end and front-end developers for clients worldwide. The agency focuses on bringing top talent to enhance the teams of international product companies with high-quality service and top-notch delivery standards. No client has ever ceased cooperation with Uvik since the beginning of the company’s existence.
Some of Uvik’s clients include famous Silicon Valley start-ups and product companies in narrow niches like public safety and security.
Projects and certifications
*2015 — ITP Strategic Business Management (Stockholm) by Sida;
*2015 — Young Entrepreneurs by Norwegian-Ukrainian Chamber of Commerce (NUCC);
*2015 — Cisco Recharge IT by Kyiv-Mohyla Business School.
At present, Okhrem is also a member of Chernivtsi IT CEO Club and a resident at Chernivtsi Business Group. He also helps to set up international cooperation initiatives on behalf of Cluster BIT.
Paul is also an invited speaker at many conferences and podcasts speaking about key topics in his areas of expertise: ecommerce personalization, cryptocurrency in ecommerce, ML and AR, and, of course, Magento ecommerce platform.
Early life and education
Paul Okhrem was born and raised in Chernivtsi, a little town in West Ukraine characterized by its cultural diversity and Austro-Hungarian architecture. As a child, he attended school No.1 in Chernivtsi and later switched to Chernivtsi Medical Liceum No.3. Still, his only passion since early childhood was technology.
In 2007, Paul got his first gig reinstalling Microsoft Windows for friends and acquaintances. Later, he got keen on WAP application development which allowed downloading music, images, and games and brought him his first money.
Eventually, Paul committed to technology and earned a Master’s Degree in Information Technology from Yuriy Fedkovych Chernivtsi National University in 2014 while already managing a small company founded during his university studies.
Another milestone in Paul’s education was an educational 2-month program of the Norwegian - Ukrainian Chamber of Commerce which sifted through the best 15 ambitious young entrepreneurs to study at Nord University, Bodø, Norway. The program also comprised lectures from the leading entrepreneurs of Norway and Ukraine, which gave Paul a solid understanding of the international markets.
Paul also participated in the Strategic Business Management program by SIDA (Swedish International Development Agency) where he got priceless strategic management experience and the opportunity to learn from the best professors at the Stockholm School of Economics. Only six people were chosen for a program out of 200, and Paul was among the shortlisted candidates. The program took place in three phases in Stockholm, Kyiv, and Vlorë and allowed Paul to create the strategic plan for his first startup, Elogic Commerce.
As a teenager, Paul also spent much time doing sports. Boxing became his hobby which led him to participate in regional contests. At present, Paul is also keen on tennis and mountain biking.
Career
Hess Incorporated and Macy’s
In 2011, Paul participated in a student exchange program called Work and Travel USA which gave him his first job as a Sales Associate. At Hess Incorporated, Paul gained much practice in interpersonal communication and a deeper understanding of the US business culture. Meanwhile, he also got a side job at Macy’s as a sales associate which gave him priceless experience selling luxury goods and communicating with high-end clients.
MTA (Multimedia)
In 2012, Paul was also a part of the multimedia and consumer technology company MTA. He was impressed that every employee would go through the intensive training course during their probation period, so he later adopted this approach in Elogic Academy.
Elogic Commerce
Paul started his first business, Elogic Commerce, in 2009 in collaboration with his friend and colleague Igor Iakovliev. The company is operating in the ecommerce industry and specializes in building, designing, and optimizing online stores. Under the supervision of Paul, the firm grew to 200+ ecommerce professionals and expanded its tech stack, services, and partnerships.
The company’s customers included big consulting agencies like Accenture as well as global retailers, such as Hanes Brands Inc., Univerre Group Switzerland, Carbon38, etc.
Uvik Software
In 2015, Okrem became the CEO of yet another venture, Uvik Software. The company provides IT staff augmentation services and sources back-end and front-end developers for clients worldwide. The agency focuses on bringing top talent to enhance the teams of international product companies with high-quality service and top-notch delivery standards. No client has ever ceased cooperation with Uvik since the beginning of the company’s existence.
Some of Uvik’s clients include famous Silicon Valley start-ups and product companies in narrow niches like public safety and security.
Projects and certifications
*2015 — ITP Strategic Business Management (Stockholm) by Sida;
*2015 — Young Entrepreneurs by Norwegian-Ukrainian Chamber of Commerce (NUCC);
*2015 — Cisco Recharge IT by Kyiv-Mohyla Business School.
At present, Okhrem is also a member of Chernivtsi IT CEO Club and a resident at Chernivtsi Business Group. He also helps to set up international cooperation initiatives on behalf of Cluster BIT.
Paul is also an invited speaker at many conferences and podcasts speaking about key topics in his areas of expertise: ecommerce personalization, cryptocurrency in ecommerce, ML and AR, and, of course, Magento ecommerce platform.