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Engineering
Capabilities:
SWASTIK
has always kept pace with latest development in the fields
of valve.
Design Capabilities:
Development
of new and enhanced products form the primary focus of design
department. New technologies, developed both in house and
in partnership with outside organizations, are integrated
into product design, to ensure we continue to exceed our customer's
requirement.
Full
advantage is taken of the latest modeling and computer solution
methods, such that the new ideas and concepts are rapidly
evaluated to arrive at superior design in short time.
Manufacturing
Capabilities:
Machines, equipment and systems, especially engineered
to meet the specific requirements of advance valve manufacturing
technology are used, allowing us to offer the best price to
performance ratio of product in their classes available in
the market by reducing the cost with the help of improved
technology.
Interchangeability:
Sub
contracting Capabilities:
SWASTIK
infuses its supplier with the same quality consciousness to
achieve high quality standard.
People:
SWASTIK valve is headed by R.K. THAKUR, an
engineer with over 35 years of experience in production and
designing of valves. At SWASTIK, all employees
are encouraged to learn, perform and grow to their full potential.
Suggestions and ideas, concerning product performance, are
openly discussed, as we believe Quality Is Everybody's
Business.
Standard
Practices:
All
enquiries of development items are circulated to Design, Quality
Control and Production Department, for their comments on constrains
of design, manufacturing and delivery. And on receipt of their
comments, our offers are being submitted with Detail General
Assembly Drawing and Quality Plan. Any clarification is being
submitted by Marketing Department, after consulting Design
& Quality Control Department.
On receipt of Order and after scrutinizing of Order, Order
Acceptance are sent with Drawing and Quality Plan to customer
for their approval. Work Order are made and released for procurement
and manufacturing activities on receipt of approved drawings
and QP from customer.
Materials are procured from selected and approved vendors,
well known foundries and the received material goes through
our regular Quality Control Inspection for conformance of
surface finish, chemistry, physical properties and dimensions.
On
the acceptance of Material, Material moves to stores/manufacturing
process.
All
in-house produced and sub-contractors supplied materials goes
through regular quality control inspection process for their
conformity of dimension and finish.
MATERIAL
PROTECTION:
All
finished carbon steel parts are protected from corrosion either
by phosphating or by cadmium plating. All stainless steel
castings are protected with passivation natural white.
All
Valves/Equipment are being 100% Pressure Tested for
leak tightness and for easy operation.
Standard Scope of Inspection by outside inspection agencies.
| 1.
|
All
valves are tested 100% by QC Department before
offering external inspection. |
| 2.
|
Overall
Dimensional check on assembled valve for its conformance
as per SWASTIK Catalogue or as per approved
drawings. |
| 3. |
Inspection calls are given. |
| 4.
|
Only
one outside inspection agency will be allowed to inspect
the valves covered in one order. |
| 5. |
All supply will accompany Test Certificate for material
conformance and Pressure Test. |
| 6. |
Finished Valves are packed properly and being dispatched
as per purchase order instruction. |
All
Jigs & Fixtures, Master gauges and Calibration of Measuring
Instruments, Pressure Gauges are periodically inspected and
this is a part of companies Quality Assurance Procedures.
At
SWASTIK, we follow the following Test & Inspection
methods and Acceptance norms:
|
Test/Inspection |
Method |
Acceptance
Criteria |
|
Visual
Inspection
|
|
MSS
SP 55
|
|
Chemical
Analysis
|
ASTM
E350
|
Relevant
ASTM
|
|
Mechanical
Properties
|
ASTM
A370
|
Relevant
ASTM
|
|
Radiographic
Inspection
|
ASTM
B16.34
|
ASME
/ ANSI B 16.34
|
|
Magnetic
Particle Inspection
|
ASTM
E 709
|
|
Liquid
Penetrant Inspection
|
ASTM
E 165
|
|
Ultrasonic
Inspection
|
ASTM
A 388
|
|
Pressure
Testing
|
API
598/BS 6755 Part I
|
API598/BS6755Part
I
|
|
Dimension
Inspection
|
|
Valve
Standard
|
The
pressure containing parts of all the valves are stamped with
the foundry identification marks and heat numbers. Valve test
certificates provide the correlating heat numbers, along with
chemical analysis and mechanical properties of pressure containing
parts.
INSPECTION
AND TESTING:
Every individual valve manufactured at SWASTIK
is inspected and pressure tested to API 598/BS 6755
Part I requirements for which Test Certificates are
provided .
TEST PRESSURES FOR STANDARD VALVES:
|
ASME
Class
|
Hydrostatic
Test Pressure
|
Pneumatic
low Pressure closure test
|
|
Shell
|
Back
Seat
|
Closure
|
|
150
|
Psi
|
450
|
315
|
315
|
100
|
|
Kg/cm2
|
32
|
22
|
22
|
7
|
|
300
|
Psi
|
1125
|
815
|
815
|
100
|
|
Kg/cm2
|
79
|
57
|
57
|
7
|
|
600
|
Psi
|
2225
|
1630
|
1630
|
100
|
|
Kg/cm2
|
156
|
115
|
115
|
7
|
|
800
|
Psi
|
3000
|
2200
|
2200
|
100
|
|
Kg/cm2
|
207
|
152
|
152
|
7
|
|
1500
|
Psi
|
5600
|
4000
|
4000
|
100
|
|
Kg/cm2
|
385
|
281
|
281
|
7
|
|
2500
|
Psi
|
9300
|
6800
|
6800
|
100
|
|
Kg/cm2
|
640
|
468
|
468
|
7
|
STANDARD
CLEANING AND PACKAGING:
Specification
SCP-G(Rev.00) April - 2000
| Scope |
|
SWASTIK
Specification SCP-G defines the cleaning,lubrication,
and packing requirements for all standard SWASTIK
Products and describes the practices used to meet these
requirements. Specification SCP-G is a unified document
that supercedes previous specifications |
| |
| Specification
Requirements |
| Products
shall be cleaned as individual components to be free
of burrs. Chips, loose particles, oil, grease and other
contaminants. The unaided eye under bright illumination
shall inspect components. Components shall be protected
from contamination after cleaning. Assembled products
shall be lubricated as required by product specifications.
Finished products shall be packaged and boxed for protection
from contamination and damage during shipment and storage.
Packages shall be marked for identification.
|
| |
| Cleaning
Practice |
| Components
are de-burred by mechanical, chemical, electrochemical
or other suitable means to remove burrs and break sharp
edges as required. Oil, grease and loose particles are
removed by cleaning with non-ozone-depleting chemicals.
Cleaned components are inspected by visual examination
without magnification under bright illumination.Carbon
steel components are protected from atmospheric corrosion
by plating, a conversion coating or a light oil film.
Brass components may be bright dipped to prevent tarnish
of exterior surfaces. Cleaned components are packaged
to protect them from damaged and contamination during
storage and are moved to final assembly in protective
parts handling containers. |
| |
| Assembly,
Lubrication and Testing Practice |
| Finished
products are assembled from cleaned components in a
clean, well-lighted work area. Lubricants or coatings
are applied to threads, mating surfaces, O-rings and
seals to prevent galling, reduce friction and ensure
proper sealing.Lubricants and coatings are hydrocarbon
or halo-carbon based compounds or silicones and may
contain inorganic additives or leachable halogens. Production
tests of assembled products, when required are being
done with clean, dry nitrogen or helium. |
| |
| Packaging
Practice |
| After
any required assembly and testing, finished products
are packaged to protect them from contamination and
damage during shipping and storage. Exposed male threads
are capped when necessary for protection. Individual
products are packaged in plastic bags when necessary
Standard quantities of products are packed in cardboard
boxes with suitable protective material. Boxes are identified
with the part number, quantity and packaging date code.
|
| |
| Safe
Component Selection |
| When
selecting a fluid system component, total system design
must be considered to ensure safe, trouble-free performance.
Size, function, materials. compatibility, adequate ratings
and proper installation, operation and maintenance are
the responsibility of the system designer and user.
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