HEP Outreach, upd. 2017, RM
Upstream Tracker for the LHCb Experiment
undergraduate research projects
The
main
project
in
which
the
Syracuse
University
HEP
Group
is
now
engaged
is
the
Upstream
Tracker
(UT)
Detector
for
the
upgrade
of
the
LHCb
Experiment
at
the
Large
Hadron
Collider
(LHC)
accelerator at CERN, located in Geneva, Switzerland.
The
purpose
of
the
LHCb
Experiment
is
to
study
the
properties
of
b-quarks
and
CP
violation,
both
of
which
are
quite
important
in
modern
physics.
Like
many
endeavors
in
modern
science,
LHCb
is
a
collaborative
effort
of
many
physicists
from
a
large
number
of
international institutions.
In
spite
of
being
a
large
international
effort,
there
is
a
lot
of
room
for
contributions
from
individuals,
and
many
undergraduate
students
working
with
our
group
at
SU
have
done
so.
Their
work
is
very
varied,
and
descriptions
of
their
work
are
given
below.
Some
explanations
are
in
their
own
words,
offering
what
they
did, what they learned, and what they liked.
Read on…
Diane Portugal
Syracuse University, class of 2020
As
an
undergraduate
seeking
rewarding
laboratory
experience,
the
HEP
research
group
was
a
great
place
to
start.
I
mainly
played
a
role
in
the
fabrication
of
carbon
foam
strips.
Carbon
foam
is
a
sturdy
yet
lightweight
material
which
we
coat
in
a
thin
layer
of
epoxy
and
trim
down
to
exact
specifications.
These
strips
are
eventually
epoxied
one
by
one
to
each
individual
stave
and
shipped
out
to
Geneva
to
be
attached
to
the
third
tracker
of
the
LHC.
While
this
is
but
a
small
part
in
a
colossal
project,
it's
still
exciting
to
know
that
I'm
making
a
necessary
contribution
to
what
might
be
one
of
the
greatest
breakthroughs
of
this
century.
The
best
part
about
the
position
is
that
you
aren't
simply
assigned
mindless
and
tedious
tasks--
you're
encouraged
to
delve
deeper
into
the
how's
and
why's
of
everything
you
do.
Professor
Mountain
supplied
us
with
an
arsenal
of
readings
on
the
fundamentals
of
High
Energy
Physics
and
the
LHCb
project
in
particular
that
we
were
allowed
to
peruse
at
our
own
leisure.
In
addition,
he
organized
several
lectures
led
by
Sheldon
Stone,
Marina
Artuso,
and
Steven
Blusk
to
iron
out
any
questions
we
might
have
had.
And
of
course,
questions
were
welcomed
at
any
time,
even
outside
of
lectures.
I
feel
that
I
gained
as
much
as
I
put
into
this
experience.
In
just
seven
short
weeks,
working
in
HEP
has
developed
my
skills
in
leadership,
collaboration,
efficiency
in
decision
making,
and
Excel.
As
of
now,
I'm
planning to continue my work in the Fall.
Markus Sprenger
University of Cincinnati, class of 2019
During
my
two
and
a
half
month
stay
at
Syracuse,
I
aided
the
UT
project.
I
learned
how
to
use
multiple
tools
as
well
as
various
properties
of
unique
materials,
such
as
carbon
foam.
The
knowledge
that
I
gained
from
former
classes
was
used
to
solve
problems
such
as
if
the
carbon
facing
would
retain
its
suction
to
the
vacuum
plate if the plate were to be turned upside down.
The
work
environment
was
friendly
and
those
present
were
more
than
willing
to
answer
any
questions
that
I
had.
Also,
any
issues
that
may
have
arisen
were
quickly
taken
care
of
and
solved
by
either
the
students
present
or
by
a
professor.
The
work
environment
was
clean
and
well
equipped
even
though
it
may
have
been
lacking
table space at times.
Rajpreet Kaur
University of Cincinnati, class of 2020
I
spent
my
summer
at
Syracuse
University
working
on
the
construction
of
staves.
I
was
working
with
three
other
undergrad
students
and
one
grad
student
which
was
itself
so
much
fun.
I
spent
most
of
my
time
working
on
the
different
components
of
the
staves
such
as
carbon
foam,
Rohacell,
carbon
facings,
etc.
Carbon
foam
strips
had
to
be
epoxied,
trimmed
and
measured
after
each
step
before
it
could
be
used
in
the
construction
of
a
full
stave.
Rohacell
sheets
were
cut
into
squares
and
thicknesses
were
recorded.
Carbon
facings
were
inspected
thoroughly,
weighed
and
were
cut
into
the
exact
lengths.
We
also
got
the
opportunity
to
work
on
the
full
staves
in
the
last
couple
of
weeks
of
our
internship.
Different
lectures
were
given
by
professors
working
on
the
UT
tracker
to
undergraduate
students
to
give
them
an
idea
of
what
they
were
doing.
I
personally
liked
to
attend
the
weekly
meetings
where
everybody
discussed
their
progresses
on
their
projects.
During
my
time
working,
I
got
the
opportunity
to
interact
with
many
other
grad
students
working
on
different
projects
which
I
believe
was
really
wonderful.
They
not
only
motivated
me
to
do
more
and
more
physics,
but
also
helped
me
realize
what
kind of physics I wanted to do.
Charles F. Keppler
Syracuse University, class of 2018
Aerospace Engineering, Physics, and Applied
Mathematics major
I
started
my
work
with
the
HEP
group
way
back
in
the
old
2010s.
2017
to
be
exact.
July
of
2017.
I’ve
been
working
there
for
about
a
month
now.
I’ve
been
tasked
with
various
things
around
the
group.
I’ve
worked
with
both
the
Carbon
and
Rohacell
foam---cutting
and
measuring.
I’ve
also
made
a
few
things
to
improve
the
workings
of
the
group,
which
include
a
stencil
mount
for
an
ultrasonic
acetone
bath,
and
a
template
to
record
epoxy
usage
and
quality.
Further,
I’ve
made
epoxy
and
used
it
to
help
construct
portions
of
staves that the group is building.
In
doing
so,
I’ve
learned
quite
a
bit.
From
general
things
like
how
to
work
in
a
clean
room,
to
more
specific
things
like
the
importance
of
record
keeping
and
extensive
measuring.
We’re
working
with
tolerances
of
around
25
microns,
so
proper
measurements
and
handling
must
be
considered.
I
also
have
learned
about
the
structure
of
big
projects
and
how
the
big
picture
breaks
down
into
literally
thousands
of
smaller
pictures.
Further,
Ray
always
likes
to
chime
in
with
either
some
useful
information
about
the
project,
certain
methodologies,
or
just
interesting
information.
I
can
look
back
on
the
past
month
now
and
really
see
the
difference
working
here
has
made
on
my
understanding
of
the
field
and
ultimately
of
what
I
want
to
be
doing
after
I
graduate.
Emily Syracuse
Syracuse University, class of 2019
Physics major
Working
the
with
the
HEP
group
has
been
a
great
experience,
added
to
that
of
taking
physics
classes here at Syracuse.
I
have
had
the
opportunity
to
do
more
hands-on
work
with
physics,
like
learning
different
techniques
for
measuring
what
seems
to
be
difficult
items
at
first,
and
to
push
what
I
was
taught
in
a
classroom
and
directly
apply
it.
I
have
been
taught
how
to
use
different
instruments
I've
never
seen
before,
and
have
the
opportunity
to
ask
"why".
Why
am
I
measuring
this?
Why
is
this
being
done
to
make
the
stave?
And
so
on.
In
doing
so,
not
only
have
I
learned
various
hands-
on
techniques,
but
also
more
and
more
about
particle physics and the goals of the HEP group.
This
experience
has
really
given
me
the
chance
to
expand
my
education
in
physics,
and
knowing
what
I'm
doing
here
is
part
of
something
much
larger
makes
it
all
the
more
an
enjoyable
experience,
along
with
an
eye
opening
one
to
another
part
of
physics
not
always
shown
in
a
strictly classroom setting.
Eric Bloomfield
Syracuse University, class of 2019
Working
as
a
research
assistant
on
the
UT
tracker
for
the
LHCb
this
past
summer
has
been
the
most
valuable
working
experience
I
have
ever
done.
I
learned
from
my
coworkers,
I
learned
how
what
I
have
already
learned
in
physics
can
be
applied
to
an
experiment
as
well
as
many
valuable
skills
that
I
can
take
with
me
to
future
jobs
and
ultimately
a
career.
Working
full
time
this
past
summer,
I
was
constantly
in
an
environment
filled
with
like
minded
individuals.
Being
still
fairly
new
to
the
field
of
physics,
I
found
myself
surrounded
by
people
who
have
similar
interests
on
a
more
advanced
level
which
enabled
me
to
learn
about
how
the
physics
classes
I
have
taken
can
be
applied
to
a
real
life
experiment
as
well
as
showed
me
how
many
different
things
need
to
be
considered
when
constructing
an
experiment
of
this
magnitude
such
as
relativity,
quantum
mechanics
as
well
as
fundamental
laws
of
physics.
I
also
learned
many
valuable
skills
that
don’t
necessarily
pertain
to
physics.
For
example,
I
learned
how
to
work
as
member
of
a
team
more
effectively.
Almost
no
tasks
were
only
for
one
person
so
I
found
myself
constantly
collaborating
with
others
to
complete
tasks
as
efficiently
as
possible.
There
were
also
tasks
I
had
to
complete
that
can
be
applied
to
physics
but
could
also
be
applied
to
a
much
broader
work
field.
For
example,
I
certainly
did
a
fair
amount
of
measuring,
weighing
and
constructing
as
well
as
following
various
procedures
and,
being
that
it
is
a
clean
room,
cleaning.
All
of
which
are
skills
that
could
potentially
be
applied
to
a
wider
variety
of
disciplines.
This
summer
I
finally
dipped
my
toes
into
the
world
of
physics
outside
the
classroom.
I
learned
much
about
how
the
laws
of
physics
I
have
learned
are
applied
to
real
experiments
as
well
as
learned
many
valuable
aspects
to
working
in
a
professional
environment
as
a
part
of
a
team.
I
look
forward
to
continuing
my
work
on
the
upstream
tracker
and
learning
more
with
every
work day.
Jeffrey Frelier
SUNY ESF, class of 2018
This
summer
I
was
very
fortunate
to
find
a
great
opportunity
working
as
a
research
assistant
for
the
high
energy
physics
group.
Much
of
my
time
at
work
this
summer
was
spent
designing
and/or
building
components
for
a
clean
room.
We
would
later
be
using
this
clean
room
to
build
staves
that
will
ultimately
be
installed
on
the
particle
acceleration.
Throughout
the
summer
I
gained
a
lot
of
experience
working
in
the
machine
shop
in
the
sub-basement
of
the
physics
building.
The
first
and
biggest
project
that
I
worked
on
this
summer
was
designing
and
building
a
cabinet
made
mostly
of
t-frame
and
acrylic
that
will
be
used
to
hang
these
staves.
I
have
since
worked
on
a
number
of
other
projects,
including
ice
box
test
that
we
will
use
to
test
electronics,
structural
analysis
of
the
stave,
particle
count
test
to
measure
the
quality
of
the
clean
room
and
stave
construction.
In
each
of
these
projects
posed
unique
challenges
and
I
have
learned
many
valuable
skills
that
will
undoubtedly
be
useful
in
my
career
outside
of
physics.
I’ve
learned
skills
involving
reading
technical
drawings,
machining
(both
numerical
control
and
some
computer
numerical
controlled),
error
propagation,
working
in
excel
sheets,
designing
etc.
Working
on
this
project
has
given
me
the
opportunity
to
learn
skills
that
I
couldn’t
in
a
classroom
setting.
In
my
opinion
some
of
the
most
valuable
skills
I’ve
gained
are
working/communicating
effectively
with
others
and
understanding
how
to
overcome
unexpected
problems.
Joe Kulikowski
SUNY ESF, class of 2020
Environmental Resource Engineering major,
Physics minor, Math minor
Working
with
the
HEP
group
at
Syracuse
university
has
proved
to
be
more
than
a
job,
but
one
of
the
best
learning
experiences
of
my
life.
Learning
started
upon
initial
hire,
I
was
given
background
material
of
what
the
HEP
group
was
doing.
My
first
few
months
working
in
the
HEP
group,
I
learned
the
importance/contents
of
metrology
analysis
and
it’s
importance
to
managing
manufacturing
processes,
was
taught
how
to
mill
parts
with
precision
to
given
dimensions,
and
most
importantly,
how
to
approach
a
task
with
critical
thinking
and
devise
a
structured way to solve such a task.
All,
but
not
limited
to
the
aforementioned,
add
up
to a work experience with purpose and passion.
Ifeanyi Uwanaka
Syracuse University, class of 2019
During
the
course
of
my
work
with
the
High
Energy
Experimental
Physics
Group,
I
was
very
involved
in
designing
and
creating
parts
for
the
UT
Tracker,
such
as
the
vacuum
plate
and
the
tools
we
used
to
create
it,
while
still
keeping
the
environment sterile.
I
learned
a
lot
about
the
purpose
and
scope
of
our
research.
I
akso
learned
about
the
various
processes
and
requirements
to
maintain
the
state
of a clean room
What
I
enjoyed
the
most
was
using
the
various
equipment
in
lab
because
it
diversified
my
weekly
tasks.
Chris Kane
SUNY ESF, class of 2019
I
have
worked
for
the
LHCb
group
at
Syracuse
University
for
a
little
more
than
1.5
years.
My
initial
work
involved
becoming
acquainted
with
the
setup
and
laboratory
methods
including
taking
and
analyzing
data
from
SALT,
soldering
to
PCBs,
using
an
oscilloscope,
and
understanding
how
SALT
works,
among
others.
I
was
developing
fundamental
skills
used
across
the
field
of
experimental
physics.
For
my
first
independent
project
I
was
tasked
with
creating
a
PCB
that
would
convert
a
USB
signal
to
an
I2C
signal
and
vice
versa.
I
became
familiar
with
the
the
ideas
of
inductance
matching,
pull-up
resistors,
electrical
clocks,
I2C
signals,
and
the
Altium
design
software.
My
next
project
was
to
design
a
Time
to
Digital
Converter
using
an
FPGA
in
order
to
measure
the
timing
of
radiation
being
sent
through
the
silicon
detectors.
I
learned
how
to
use
the
firmware
language
VHDL
as
well
as
the
basics
of
how
FPGAs
work.
I
used
an
oscilloscope
extensively
to
diagnose
issues
with
the
relative
timing
of
the
clocks
in
the
TDC.
For
my
most
recent
project
I
was
tasked
with
designing
a
PCB
to
allow
testing
of
the
hybrid
ASIC
setup
using
a
beam
of
particles.
I
became
much
more
skilled
using
the
Altium
software
and
learned
about
cooling systems used in experiments.
Throughout
my
time
here,
I
was
always
allowed
ample
independence
which
I
enjoyed.
For
each
new
task,
my
research
advisor,
Jianchun
Wang
(JC),
would
provide
me
a
necessary
background
to
get
started
and
let
me
work
at
my
own
pace.
If
I
forgot
something
or
encountered
a
something
new,
he
would
again
provide
me
with
the
information
necessary
to
move
forward.
If
JC
was
not
around,
I
could
go
to
any
other
faculty
in
the
group
and
they
would
gladly
help
out
however
they
could.
If
I
ever
made
a
mistake,
there
was
no
blame
or
pointing
fingers.
I
would
be
told
the
proper
technique
or
procedure,
the
problem
would
be
corrected,
and
we
moved
on.
The
environment
is
such
that
the
undergrads
can
perform
meaningful
work
as
well
as
become
trained
so
as
to
become
part
of
the
upcoming
generation of physicists.
Daniel Harari
Syracuse University, class of 2017
Over
the
summer
of
2017
I
worked
with
the
High
Energy
Particle
Physics
group
at
Syracuse
University.
My
primary
responsibilities
included
working
on
testing
environments
for
the
new
ASIC
hybrid
board
as
well
as
populating
the
board
with
the
necessary
circuit
elements.
The
first
few
weeks
of
work
revolved
primarily
around
familiarizing
myself
with
the
LHCb
detector
and
the
testing
programs
and
models
used
by
the
graduate
students
and
professor
in
charge
of
the
electronics.
This
included
familiarizing
myself
with
Emacs
as
well
as
Linux
commands
and
navigation.
Once
Professor
JC
Wang
returned
from
his
time
in
Geneva,
I
began
familiarizing
myself
with
High-Density
Surface
Mount
soldering.
The
new
hybrid
board
had
been
ordered
without
any
components
attached
and
would
require
me
to
put
resistors,
capacitors,
and
ports onto the board.
The
biggest
challenge
was
perfecting
hot
air
soldering.
Ahead
of
time,
I
was
aware
that
I
would
have
to
use
a
heat
gun
to
attach
a
high-density
port
onto
the
board.
This
connection
had
to
be
almost
perfect
as
a
short
would
result
in
incorrect
test
results.
After
several
trials,
I
eventually
mastered
HDSM
and
populated
two
complete
boards.
Once
assembled
I
was
tasked
with
constructing
a
styrofoam
box
that
would
allow
us
to
test
the
hybrid
under
actual
cooling
conditions.
While
in
the
LHCb,
a
version
of
the
system
I
had
built
would
be
cooled
to
-10°C.
This
version
of
those
electronics
needed
to
be
run
at
a
similar
temperature
to
demonstrate
that
the
circuit
would
operate
normally
under
cooling
conditions.
This
involved
building
both
a
supporting
structure
for
the
circuit
as
well
as
understanding
the
cooling
elements
called
Peltiers
that
I
would
implement
to
cool
the
board.
With
some
difficulty,
I
managed
to
get
the
box
down
to
the
desired
-10°C
but
with
some
room
for
improvement.
Looking
forward
I
will
begin
to
design
and
assemble
a
more
effective
cooling
container.
Victor Cannestro
Syracuse University, class of 2017
Through
working
with
the
HEP
group,
I've
gained
fluency
in
Python
and
worked
on
the
following
projects:
•
Analyzed
SmartScope
output
files
using
nonlinear
least
squares
methods,
regular
expressions,
data
structures,
and
functional
programming
with
Numpy
and
Scipy
to
address
discrepancies in fabrication.
•
Visualized
the
distribution
of
a
fabricated
sample’s
radii,
path
length,
and
center
coordinates
with
histograms
and
scatterplots
to
prompt
the
need
for
better
construction
techniques.
•
Built
surface
graphs
from
many
data
points
taken from fabricated metal pieces
I've
liked
the
computational
projects
I've
had
the
opportunity
to
work
on
and
autonomy
that's
come
with
them.
I
believe
I've
grown
more
mature
as
an
aspiring
scientist,
because
of
the
example and tutelage of my mentors at Syracuse.