Pablo R Rojas, 433425 Knox Pl UNIT 4G, Bronx, NY 10467

2013025, Sep 26, 2013

Mar 21, 2012

13/426104

Stephanie M. Corthesy - Zurich, CH
Pablo Meyer Rojas - Brooklyn NY, US
Raquel Norel - New York NY, US
John J. Rice - Mohegan Lake NY, US
Ajay K. Royyuru - Congers NY, US
Joerg J. Sprengel - Baden, DE
Gustavo A. Stolovitzky - Riverdale NY, US
Thomas Bonk - KoIn, DE
Julia Hoeng - Neuchatel, CH
Manuel Peitsch - Peseux, CH
Katrin Stolle - Koln, DE

PHILLIP MORRIS INTERNATIONAL - Neuchatel
INTERNATIONAL BUSINESS MACHINES CORPORATION - Armonk NY

G06F 9/46

718102

A method of implementing verification of a complex workflow includes partitioning the workflow into modules, wherein the modules have inputs, processing steps and outputs; selecting, from the workflow, one of the partitioned modules for independent verification by challenge thereof; running, with a computing device, a challenge of the selected module, the challenge comprising comparing reference outputs to outputs of the selected module, wherein reference inputs are received by the selected module and the reference outputs are generated using the reference inputs and one of an ideal performing module or a well-established module; determining whether outputs of the selected module meet verification criteria with respect to the reference outputs, and based on the determining, implementing one of: declaring the selected module verified; subdividing the selected module into smaller modules and repeating the challenge on the smaller modules; or declaring the selected module not verified.

2020007, Mar 5, 2020

Sep 4, 2018

16/121100

- Armonk NY, US
Guillermo Cecchi - New York NY, US
Pablo Meyer Rojas - Brooklyn NY, US

G01N 33/00

A system for compressing data during neural network training, comprising of memory that stores computer executable components; a processor that executes computer executable components stored in the memory, wherein the computer executable components comprise of a compilation component that compiles respective molecular descriptors regarding a first set of molecules; a perception component that learns human perception information related to olfactory perceptions of the first set of molecules, and generates predictions of human olfactory perceptions of a second set of molecules; a fitting component that fits distance predictions from the perception component regarding the second set of molecules against measured correct classifications regarding the second set of molecules; and a vector component that generates a perceptual vector distance between two olfactory targets.

2019020, Jul 4, 2019

Mar 11, 2019

16/298101

- Armonk NY, US
HUAN HU - Yorktown Heights NY, US
PABLO M. ROJAS - Brooklyn NY, US
GUSTAVO A. STOLOVITZKY - Riverdale NY, US

A01N 25/34
B81C 1/00
C30B 33/10
A01N 59/16
B81C 99/00
C09K 13/08

The method comprises contacting a silicon substrate with a silver salt and an acid for a time effective to produce spikes having a first end disposed on the silicon substrate and a second end extending away from the silicon substrate. The spikes have a second end diameter of about 10 nm to about 200 nm, a height of about 100 nm to 10 micrometers, and a density of about 10 to 100 per square microns. The nanostructures provide antimicrobial properties and can be transferred to the surface of various materials such as polymers.

2019004, Feb 14, 2019

Oct 17, 2018

16/162669

- Armonk NY, US
HUAN HU - YORKTOWN HEIGHTS NY, US
PABLO MEYER ROJAS - BROOKLYN NY, US
JOSHUA T. SMITH - CROTON-ON-HUDSON NY, US

A01N 25/00
A01N 25/34
B82Y 40/00
H01L 21/31
B82Y 30/00

The present disclosure relates to methods for forming an antimicrobial nanostructure and antimicrobial articles. The methods may include: providing a master template of a layout of the antimicrobial nanostructure on a silicon substrate, depositing a silicon nitride layer on a top surface of the silicon substrate, forming a patterned lithographic resist mask layer on a top surface of the silicon nitride layer, generating certain silicon pillars according to the patterned lithographic resist mask using a resist and reactive ion etching, forming certain lateral silicon nanospikes on the silicon pillars by performing metal assisted chemical etching (MacEtch), and removing the silicon nitride layer and bonding a top cover glass on the silicon pillars to form the antimicrobial nanostructure having lateral silicon nanospikes. The antimicrobial article may include a component of an electronic device, a biomedical article, a household product, a food grade article, a transportation component, or a public building component.

2018010, Apr 19, 2018

Oct 18, 2016

15/296597

- ARMONK NY, US
Amit Dhurandhar - Yorktown Heights NY, US
Pablo Meyer rojas - YORKTOWN HEIGHTS NY, US

G06F 19/00

Predicting human olfactory perception based on molecular structure is described. Molecular descriptor data indicative of molecular descriptors associated with a group of molecular samples can be obtained. Olfactory perception indicator (OPI) data for a set of OPIs can also be obtained with respect to the molecular samples. A training model can be executed on the molecular descriptor data and the OPI data to yield an output model that correlates molecular attributes with OPIs for a single individual or across an aggregate of individuals. The output model can be used to predict olfactory perception for a particular compound or mixture based on which OPIs are correlated with molecular descriptors of the compound or mixture in the output model. The output model can also be inverted and used to identify molecular descriptors that are correlated with a desired set of OPIs. A molecular construct having the molecular descriptors can then be generated.

2017035, Dec 14, 2017

Jun 26, 2017

15/632947

- ARMONK NY, US
HUAN HU - YORKTOWN HEIGHTS NY, US
PABLO MEYER ROJAS - BROOKLYN NY, US
JOSHUA T. SMITH - CROTON-ON-HUDSON NY, US

A01N 25/00
B82Y 40/00
B82Y 30/00
H01L 21/31

The present disclosure relates to methods for forming an antimicrobial nanostructure and antimicrobial articles. The methods may include: providing a master template of a layout of the antimicrobial nanostructure on a silicon substrate, depositing a silicon nitride layer on a top surface of the silicon substrate, forming a patterned lithographic resist mask layer on a top surface of the silicon nitride layer, generating certain silicon pillars according to the patterned lithographic resist mask using a resist and reactive ion etching, forming certain lateral silicon nanospikes on the silicon pillars by performing metal assisted chemical etching (MacEtch), and removing the silicon nitride layer and bonding a top cover glass on the silicon pillars to form the antimicrobial nanostructure having lateral silicon nanospikes. The antimicrobial article may include a component of an electronic device, a biomedical article, a household product, a food grade article, a transportation component, or a public building component.

2017028, Oct 5, 2017

Apr 5, 2016

15/091074

- ARMONK NY, US
HUAN HU - YORKTOWN HEIGHTS NY, US
PABLO MEYER ROJAS - BROOKLYN NY, US
JOSHUA T. SMITH - CROTON-ON-HUDSON NY, US

A01N 25/00

The present disclosure relates to methods for forming an antimicrobial nanostructure and antimicrobial articles. The methods may include: providing a master template of a layout of the antimicrobial nanostructure on a silicon substrate, depositing a silicon nitride layer on a top surface of the silicon substrate, forming a patterned lithographic resist mask layer on a top surface of the silicon nitride layer, generating certain silicon pillars according to the patterned lithographic resist mask using a resist and reactive ion etching, forming certain lateral silicon nanospikes on the silicon pillars by performing metal assisted chemical etching (MacEtch), and removing the silicon nitride layer and bonding a top cover glass on the silicon pillars to form the antimicrobial nanostructure having lateral silicon nanospikes. The antimicrobial article may include a component of an electronic device, a biomedical article, a household product, a food grade article, a transportation component, or a public building component.

2017017, Jun 22, 2017

Dec 18, 2015

14/973984

- Armonk NY, US
HUAN HU - YORKTOWN HEIGHTS NY, US
PABLO M. ROJAS - BROOKLYN NY, US
GUSTAVO A. STOLOVITZKY - RIVERDALE NY, US

C08J 5/00
C08J 5/18
C30B 33/10

The method comprises contacting a silicon substrate with a silver salt and an acid for a time effective to produce spikes having a first end disposed on the silicon substrate and a second end extending away from the silicon substrate. The spikes have a second end diameter of about 10 nm to about 200 nm, a height of about 100 nm to 10 micrometers, and a density of about 10 to 100 per square microns. The nanostructures provide antimicrobial properties and can be transferred to the surface of various materials such as polymers.