UNITED STATES SECURITIES AND EXCHANGE COMMISSION
                       Washington, D.C. 20549

                               Form 8-K

                            Current Report
   Pursuant to Section 13 or 15(d) of the Securities Exchange Act of 1934

      Date of Report (Date of earliest event reported): April 25, 2007

                      CVD Equipment Corporation
         (Exact name of Registrant as Specified in its Charter)

           New York		1-16525			  11-2621692
 (State or other jurisdiction  (Commission	        (IRS Employer
       of incorporation)          File No.)          Identification No.)

              1860 Smithtown Ave. Ronkonkoma, New York 11779
                  (Address of Principal Executive Office)

    Registrant's telephone number, including area code:  (631) 981-7081

   Check the appropriate box below if the Form 8-K filing is intended to
 simultaneously satisfy the filing obligation of the registrant under any
    of the following provisions (SEE General Instruction A.2. below):

[ ]	Written communications pursuant to Rule 425 under the Securities Act
         (17 CFR 230.425)

[ ]	Soliciting material pursuant to Rule 14a-12 under the Exchange Act
         (17 CFR 240.14a?12)

[ ]	Pre-commencement communications pursuant to Rule 14d-2 (b) under the
         Exchange Act (17 CFR 240.14d-2(b))

[ ]	Pre-commencement communications pursuant to Rule 13e-4 (C) under the
         Exchange Act (17CFR 240.13e-4 (c))




Item	8.01		Other Events.

On April 27, 2007 the University of Cincinnati issued the attached revised
press release "UC Researchers Shatter World Records with Length of Latest
Carbon Nanotube Arrays".  According to the release, a new world record has
been achieved by researchers at the University of Cincinnati, who developed
a novel composite catalyst and optimal synthesis conditions for oriented
growth of multi-wall Carbon nanotube (CNT) arrays, thus producing the
longest aligned CNT arrays. CNTs are of great interest because of their
outstanding mechanical, electrical and optical properties, and because of
their potential applications in nanomedicine, aerospace, electronics and
many other areas. CVD Equipment Corporation developed and built the Easy
Tube System and our First Nano division grew the long CNT arrays in our
laboratory. First Nano is a division of CVD Equipment Corporation.
See Exhibit 99.1.

Item   	9.01		Financial Statements and Exhibits

(c)  Exhibits


Exhibit
Number	Description
99.1	Press release, dated April 25, 2007, by the University of Cincinnati
            titled "UC Researchers shatter World Records with Length of
            Latest Carbon Nanotube Arrays"


                                  SIGNATURE

Pursuant to the requirements of the Securities and Exchange Act of 1934,
the registrant has duly caused this report to be signed on its behalf by
the undersigned hereunto duly authorized.

                                    CVD EQUIPMENT CORPORATION

                                         /s/ Leonard A. Rosenbaum
                                     --------------------------------
                                       Leonard A. Rosenbaum, Chairman
                                      of the Board, President and CEO

Dated April 30, 2007

                                1                         Exhibit 99.1

University Of Cincinatti

UC Researchers Shatter World Records with Length of Carbon Nanotube Arrays
University of Cincinnati researchers lead the world in the synthesis of
extremely long aligned carbon nanotube arrays. The research has
implications for medical, aerospace, electronic and other applications.

Date: 4/27/2007
By: Wendy Beckman
Phone: (513) 556-1826
Other Contact: Vesselin Shanov
Other Contact Phone: (513) 556-2461
Photos By: Vesselin Shanov and Mark Schulz

UC engineering researchers have developed a novel composite catalyst and
optimal synthesis conditions for oriented growth of multi-wall CNT arrays.
And right now they lead the world in synthesis of extremely long aligned
carbon nanotube arrays.

Carbon nanotubes (CNTs) are of great interest because of their outstanding
mechanical, electrical and optical properties. Intense research has been
undertaken to synthesize long aligned CNTs because of their potential
applications in nanomedicine, aerospace, electronics and many other areas.

Especially important is that long CNT arrays can be spun into fibers that
are - in theory - significantly stronger and lighter than any existing
fibers and are electrically conductive. Nanotube fibers are expected to
engender revolutionary advances in the development of lightweight,
high-strength materials and could potentially replace copper wire.

                                2                         Exhibit 99.1
Years of effort by UC researchers Vesselin Shanov and Mark Schulz,
co-directors of the University of Cincinnati Smart Materials Nanotechnology
Laboratory, along with Yun YeoHeung and students, led to the invention of
the method for growing long nanotube arrays. Employing this invention, the
UC researchers (in conjunction with First Nano, a division of CVD Equipment
Corporation of Ronkonkoma, New York) have produced extremely long CNT
arrays (18 mm) on their EasyTube System using a Chemical Vapor Deposition
(CVD) process.

Moreover, in a re-growth experiment on a separate substrate, they produced
an 11-mm long CNT array. This array was then successfully peeled completely
off the substrate. Without additional processing, the same substrate was
reused for a successive growth that yielded an 8-mm-long CNT array.

Shanov notes that their research has had four major milestones this year
already.

"First, we were able to grow the arrays up to 18 mm," he says, ticking off
the achievements. "Second, we produced a uniform carpet of 12-mm carbon
nanotube arrays on a 4-inch wafer, which moves the invention into the field
of scaled-up manufacturing for industrial application. Third, we filed a
patent application on the inventions at the US Patent and Trademark Office
and, fourth, we were invited to participate in a very prestigious workshop
(invitation-only) organized by NASA and Rice University, where we presented
our latest results. The workshop focused on "Single Wall Carbon Nanotube
Nucleation and Growth Mechanisms." This event was attended by the best
scientists in the world working on synthesis carbon nanotubes, from Japan,
China, Europe and the United States. Our presentation was accepted very
well and confirmed that with the current record of 18-mm-long carbon
nanotube arrays, and also with the big area growth on 4-inch wafers, we are
leading in manufacturing extremely long CNT arrays."

                                3                         Exhibit 99.1
The Fine Print and Nano Details
The UC substrate for growing CNT arrays is a multilayered structure with a
sophisticated design in which a composite catalyst is formed on top of an
oxidized silicon wafer. Its manufacturing requires a "clean room"
environment and thin-film deposition techniques that can be scaled up to
produce commercial quantities. CNT synthesis is carried out in a
hydrogen/hydrocarbon/water/argon environment at 750 degrees Celsius. The
achievement of growing centimeter-long nanotube arrays provides hope that
continuous growth of CNTs in the meter length range is possible. Leonard
Rosenbaum, president and CEO of CVD Equipment Corporation, is looking
forward to continuing the partnership with UC to bring this technology from
the laboratory into full-scale production. UC is also partnering with
another company to develop production of long CNT arrays that can be spun
into fibers.

This research was supported by National Science Foundation (NSF) grant
CMS-051-0823 (program directors Shih-Chi Liu & K. Jimmy Hsia) and the
Office of Naval Research (program director Ignacio Perez) through North
Carolina A&T SU (program directors Jag Sankar & Sergey Yarmolenko). CVD
Equipment Corporation engineers developed and built the EasyTube System
used by First Nano to grow the long CNT arrays.

Other Nano News at UC
11/29/2006   University of Cincinnati Researchers Grow Their Longest Carbon
Nanotube Ever
A nanospace race has raged to successfully grow a nanotube array suitable
for many uses. And today a UC research team, in conjunction with First
Nano, is ahead - by a thousandth of a hair.