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Vadim M Daskal

from Brookline, MA
Age ~70

Vadim Daskal Phones & Addresses

  • 20 Strathmore Rd, Brookline, MA 02445 (617) 566-8765
  • 1 Miranova Pl, Columbus, OH 43215 (614) 947-0916
  • San Diego, CA
  • Carlsbad, CA
  • Duxbury, MA
  • Woburn, MA
  • Dedham, MA
  • Watertown, MA

Resumes

Resumes

Vadim Daskal Photo 1

Vadim Daskal

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Location:
Columbus, OH
Industry:
Medical Devices
Vadim Daskal Photo 2

Art Director, Owner At Papelcouture

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Position:
Art Director, owner at Papelcouture, Owner at LCS (Laser Cutting Shapes)
Location:
Columbus, Ohio Area
Industry:
Design
Work:
Papelcouture - Columbus, Ohio Area since Jan 2011
Art Director, owner

LCS (Laser Cutting Shapes) since Jul 2008
Owner

Boston Lasers Jun 2004 - Feb 2008
Owner

BD Jul 2001 - Apr 2004
Sr. Process Development Engineer

3M Mar 1998 - Jul 2001
Sr. Process Development Engineer
Education:
Odessa State Academy of Refrigeration
ms, Refrigeration technology
Interests:
Laser cutting services: wood, fabric, textile, plastic, avrylic, paper, cardboard

Business Records

Name / Title
Company / Classification
Phones & Addresses
Vadim Daskal
President
Boston Lasers
Design · Medical Doctor's Office
21 Olympia Ave #W, Woburn, MA 01801
(781) 569-6216
Vadim Daskal
Managing
Laser Cutting Shapes
Graphic Design · Mfg Electrical Equipment/Supplies
6522 Singletree Dr, Columbus, OH 43229
(614) 848-5700
Vadim Daskal
President
SOFT BAY, INC
14 Frout Farm Ln, Duxbury, MA 02332
14 Trout Farm Ln, Duxbury, MA 02332

Publications

Us Patents

Silicon Blades For Surgical And Non-Surgical Use

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US Patent:
7387742, Jun 17, 2008
Filed:
Sep 17, 2004
Appl. No.:
10/943227
Inventors:
Vadim M. Daskal - Watertown MA, US
Joseph F. Keenan - Cohasset MA, US
James Joseph Hughes - Dracut MA, US
Attila E. Kiss - N. Andover MA, US
Susan M. Chavez - Lancaster MA, US
Assignee:
Becton, Dickinson and Company - Franklin Lakes NJ
International Classification:
B44C 1/22
US Classification:
216 53, 216 2, 216 11, 216 99
Abstract:
Ophthalmic surgical blades are manufactured from either a crystalline or polycrystalline material, preferably in the form of a wafer. The method comprises preparing the crystalline or polycrystalline wafers by mounting them and machining trenches into the wafers. Methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, a hot forge press and a router. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or polycrystalline material are removed uniformly, producing single, double or multiple bevel blades. Nearly any bevel angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost. The ophthalmic surgical blades can be used for cataract and refractive surgical procedures, as well as microsurgical, biological and non-medical, non-biological purposes.

Methods Of Fabricating Complex Blade Geometries From Silicon Wafers And Strengthening Blade Geometries

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US Patent:
7396484, Jul 8, 2008
Filed:
Apr 29, 2005
Appl. No.:
11/117730
Inventors:
Vadim M. Daskal - Brookline MA, US
Joseph F. Keenan - Cohasset MA, US
James Joseph Hughes - Dracut MA, US
Attila E. Kiss - Andover MA, US
Susan M. Chavez - Lancaster MA, US
Assignee:
Becton, Dickinson and Company - Franklin Lakes NJ
International Classification:
B24C 1/22
US Classification:
216101, 216 99, 216103, 438745
Abstract:
Ophthalmic surgical blades are manufactured from either a single crystal or poly-crystalline material, preferably in the form of a wafer. The method comprises preparing the single crystal or poly-crystalline wafers by mounting them and etching trenches into the wafers using one of several processes. Methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, a hot forge press and a router. Other processes include wet etching (isotropic and anisotropic) and dry etching (isotropic and anisotropic, including reactive ion etching), and combinations of these etching steps. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or poly-crystalline material are removed uniformly, producing single, double or multiple bevel blades. Nearly any angle can be machined into the wafer, and the machined angle remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost.

System And Method For Creating Linear And Non-Linear Trenches In Silicon And Other Crystalline Materials With A Router

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US Patent:
7785485, Aug 31, 2010
Filed:
Sep 17, 2004
Appl. No.:
10/943229
Inventors:
Vadim M. Daskal - Brookline MA, US
Joseph F. Keenan - Cohasset MA, US
James Joseph Hughes - Dracut MA, US
Assignee:
Becton, Dickinson and Company - Franklin Lakes NJ
International Classification:
B44C 1/22
US Classification:
216 53, 216 2, 216 11, 216 99, 216101
Abstract:
A method for manufacturing blades for surgical and other uses from either a crystalline or polycrystalline material, preferably in the form of a wafer, comprises preparing the crystalline or polycrystalline wafers by mounting them and machining trenches into the wafers. The methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, a hot forge press and a router. When a router is used, through-holes are drilled in the wafer to define the starting locations of the trenches. After the trenches are formed, the wafers are placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or polycrystalline material are removed uniformly, producing single or double bevel blades, with each bevel having one or more facets. Nearly any bevel angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost.

System And Method For The Manufacture Of Surgical Blades

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US Patent:
7906437, Mar 15, 2011
Filed:
Jul 31, 2006
Appl. No.:
11/495895
Inventors:
Joseph Francis Keenan - Cohasset MA, US
Vadim Mark Daskal - Watertown MA, US
James Joseph Hughes - Dracut MA, US
Assignee:
Beaver-Visitec International (US), Inc. - Lake Forest IL
International Classification:
H01L 21/302
H01L 21/461
US Classification:
438745, 438750, 438572
Abstract:
A method for manufacturing surgical blades from either a crystalline or poly-crystalline material, preferably in the form of a wafer, is disclosed. The method includes preparing the crystalline or poly-crystalline wafers by mounting them and machining trenches into the wafers. The methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, and a hot forge press. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or poly-crystalline material are removed uniformly, producing single or double bevel blades. Nearly any angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost.

System And Method For The Manufacture Of Surgical Blades

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US Patent:
8409462, Apr 2, 2013
Filed:
Feb 9, 2011
Appl. No.:
12/929707
Inventors:
Joseph Francis Keenan - Cohasset MA, US
Vadim Mark Daskal - Watertown MA, US
James Joseph Hughes - Dracut MA, US
Assignee:
Beaver-Visitec International (US), Inc. - Waltham MA
International Classification:
C03C 15/00
C03C 25/68
C23F 1/00
C23F 3/00
US Classification:
216101, 438745, 438753, 252 792
Abstract:
A method for manufacturing surgical blades from either a crystalline or poly-crystalline material, preferably in the form of a wafer, is disclosed. The method includes preparing the crystalline or poly-crystalline wafers by mounting them and machining trenches into the wafers. The methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, and a hot forge press. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or poly-crystalline material are removed uniformly, producing single or double bevel blades. Nearly any angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost.

System And Method For The Manufacture Of Surgical Blades

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US Patent:
20030199165, Oct 23, 2003
Filed:
Mar 10, 2003
Appl. No.:
10/383573
Inventors:
Joseph Keenan - Cohasset MA, US
Vadim Daskal - Watertown MA, US
James Hughes - Dracut MA, US
Assignee:
Becton, Dickinson and Company
International Classification:
H01L021/302
H01L021/461
US Classification:
438/689000
Abstract:
A method for manufacturing surgical blades from either a crystalline or poly- crystalline material, preferably in the form of a wafer, is disclosed. The method includes preparing the crystalline or poly-crystalline wafers by mounting them and machining trenches into the wafers. The methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, and a hot forge press. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or poly-crystalline material are removed uniformly, producing single or double bevel blades. Nearly any angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is -nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost.

Method For Reducing Glare And Creating Matte Finish Of Controlled Density On A Silicon Surface

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US Patent:
20050155955, Jul 21, 2005
Filed:
Sep 9, 2004
Appl. No.:
10/936725
Inventors:
Vadim Daskal - Brookline MA, US
Attila Kiss - N. Andover MA, US
International Classification:
B23K026/36
US Classification:
219121680, 219121690
Abstract:
A system and method for producing a matte finish on a silicon surgical blade or other surface, wherein the system comprises a computer, laser and lens assembly, and an x-y coordinate controller which controls the position of the laser in accordance with received instructions. The method comprises creating a design or pattern to be ablated on the surgical blade by the laser. A data set is then generated from file representing the design or pattern, and the data set instructions are sent to the x-y coordinate controller and laser and lens assembly. The x-y coordinate controller moves the laser to a location where a crater is to be formed, and the laser illuminates the surgical blade, burning a pit or crater of pre-determined diameter, depth and spacing into the surgical blade. The process then rapidly repeats itself until the design or pattern has been created in the surgical blade.

Silicon Blades For Surgical And Non-Surgical Use

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US Patent:
20090007436, Jan 8, 2009
Filed:
Jun 16, 2008
Appl. No.:
12/213202
Inventors:
Vadim M. Daskal - Watertown MA, US
Joseph F. Keenan - Cohasset MA, US
James Joseph Hughes - Dracut MA, US
Attila E. Kiss - N. Andover MA, US
Susan M. Chavez - Lancaster MA, US
International Classification:
B26B 9/00
US Classification:
30346
Abstract:
Ophthalmic surgical blades are manufactured from either a crystalline or polycrystalline material, preferably in the form of a wafer. The method comprises preparing the crystalline or polycrystalline wafers by mounting them and machining trenches into the wafers. Methods for machining the trenches, which form the bevel blade surfaces, include a diamond blade saw, laser system, ultrasonic machine, a hot forge press and a router. The wafers are then placed in an etchant solution which isotropically etches the wafers in a uniform manner, such that layers of crystalline or polycrystalline material are removed uniformly, producing single, double or multiple bevel blades. Nearly any bevel angle can be machined into the wafer which remains after etching. The resulting radii of the blade edges is 5-500 nm, which is the same caliber as a diamond edged blade, but manufactured at a fraction of the cost. The ophthalmic surgical blades can be used for cataract and refractive surgical procedures, as well as microsurgical, biological and non-medical, non-biological purposes.
Vadim M Daskal from Brookline, MA, age ~70 Get Report