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<article xmlns:xlink="http://www.w3.org/1999/xlink">
  <front>
    <journal-meta />
    <article-meta>
      <article-id pub-id-type="doi">10.3390/rs12101576</article-id>
      <title-group>
        <article-title>RandomForest Enabled Collaborative COVID-19 Product Manufacturing/Fabrications</article-title>
      </title-group>
      <contrib-group>
        <contrib contrib-type="author">
          <string-name>Shajulin Benedict</string-name>
          <xref ref-type="aff" rid="aff0">0</xref>
        </contrib>
        <aff id="aff0">
          <label>0</label>
          <institution>Indian Institute of Information Technology Kottayam</institution>
          ,
          <addr-line>Valavoor P.O., Kottayam, Kerala</addr-line>
          ,
          <country country="IN">India -</country>
          <addr-line>686635</addr-line>
        </aff>
      </contrib-group>
      <pub-date>
        <year>2020</year>
      </pub-date>
      <volume>102</volume>
      <issue>107290</issue>
      <fpage>50</fpage>
      <lpage>61</lpage>
      <abstract>
        <p>Manufacturing COVID-19-related products such as face masks, shields, ventilators, shoe covers, gowns, and so forth, rapidly increased in recent months as the virus pandemic surges across the globe. Governments and Industrialists are keen to formulate quick decisions and are open to decentralize productions within a prescribed time limit using smart techniques. Recommendations on the volume of productions and the producer assignments are remaining a sole concern for policymakers or smart city authorities due to the unforeseen or unpredictable nature of the raging pandemic. This article introduces a RandomForest-assisted Collaborative COVID-19 Product Manufacturing (RFCCPM) framework. It collaboratively decides on producing COVID-19 preventive kits in a cost-eficient manner. The approach was experimented at the IoT cloud research laboratory; it achieved a manufacturing cost eficiency of 66 percent when Threshold Accepting (TA) algorithm was incorporated in the framework.</p>
      </abstract>
      <kwd-group>
        <kwd>eol&gt;COVID-19</kwd>
        <kwd>RandomForest</kwd>
        <kwd>Fabrication</kwd>
        <kwd>Manufacturing</kwd>
        <kwd>Smart Decisions</kwd>
      </kwd-group>
    </article-meta>
  </front>
  <body>
    <sec id="sec-1">
      <title>1. Introduction</title>
      <p>to the ongoing lockdown and minimal
employee situations in production units.
HighOne of the great health-related pandemic that quality machines have become non-
operahas clouted all growth sectors, including man- tional for months since the eruption of the
ufacturing and the world finance sector, and pandemic across the globe. Many
manufachas unsolved challenges is the lethality due turing companies have almost closed their
opto the COVID-19 public crisis. The virus has erations due to reduced workforce and
eruptpredominantly led nations to unwelcoming ing supply chain disruptions. Even the most
social distancing practices, inefective com- urgent production of COVID-19-related
premunications, sweeping economies, discrimi- ventive products such as masks, face shields,
nations in certain locations, distrustful rela- hood caps, shoe covers, and so forth, has
wittionships, and so forth, at large. nessed a catastrophe which could adversely</p>
      <p>The Manufacturing/Fabrication sector has reiterate until innovative solutions are framed
seen a disrupted shift in productions which in the manufacturing/fabrication sectors. A
remains as an unpredictable realization by man-single manufacturer of a region could not
proufacturers in order to revamp productions due duce/supply all required COVID-19 products
with utmost satisfaction in a short period in
ISIC 2021: International Semantic Intelligence Conference, the midst of the exponential growth of
COVIDFebruary 25–27, 2021, New Delhi, India. 19 cases.
" EMAIL: shajulin@iiitkottayam.ac.in (S. Benedict) The manufacturing sector, typically, attracts
~ UORRLC:IhDtt:p0:0//0w0-w0w00.s2b-2e5n4e3d-i2c7tg1l0ob(Sa.l.Bceonmed( Sic. tB) enedict) a major portion of revenue in various
counC©re2a0t2i1veCCoopmyrmigohntsfLoricethnissepAatpterirbubytioints4a.0utIhnoterrsn.aUtisoenaple(rCmCitBteYd4u.0n)d.er tries when compared to services or retail
secCEUR Workshop Proceedings (CEUR- tors. Accordingly, governments and
manuWS.org)
facturers are keen to provide solutions and dressed for improving the voluminous
proupsurge productions at about 3 to 5 percent- ductions: i) Which company needs to be
perage in order to combat the anticipated eco- mitted to develop COVID-19 products? and
nomic consequences. However, the most cru- ii) How much quantity of COVID-19
prodcial challenges faced by manufacturers, in- ucts is required in a particular region
considcluding COVID-19 product developers, dur- ering the increase of the COVID-19 cases?
ing the COVID-19-crisis epoch are listed as This article proposes a Random Forest (RF)
follows: algorithmic approach to predict the required
number of productions of COVID-19
preven• an abrupt stalemate in material move- tive kits based on i) the demand of a
particments, especially while transferring ma- ular location, ii) COVID-19 quarantine cases,
terials from international hubs or lock- and iii) the budget availability of a region. It
down locations, due to disruption in the introduces a RandomForest-assisted
Collabosupply chains; rative COVID-19 Product Manufacturing
(RFC• a poor quality in COVID-19 solutions CPM) framework. The proposed RFCCPM
apwhile adopting expeditious innovations proach includes a Threshold Acceptance (TA)
with limited machinery or experiments scheduling algorithm in the framework to
prein a short period from restricted lock- pare a manufacturing schedule that
considdown locations; ers the geo-distributed nature of
collaborative manufacturing for quick voluminous
pro• a difering working environment, es- ductions. The RFCCPM framework has the
pecially the concept of “Work from Home“c,apability to initiate production and promotes
which urged a limited access to remote economy during COVID-19 or similar
healthmanufacturing sites; and so forth. related crisis of the future. It maps
production tasks to available or functional
manufac</p>
      <p>A growing volume of research and prod- turing hubs/units using a Threshold
Acceptuct development rapidly emerged globally to ing (TA) algorithm with the objective of
imcounterfeit the COVID-19 crisis and associ- proving the cost eficiency of manufacturing
ated challenges apart from the core medical units. It can consider the lockdown situation
solutions. For instance, solutions relating to of a region while producing products.
the digital working environment, adopting a The proposed research was experimented
long term planning for cash/resource utiliza- at the IoT Cloud Research laboratory and
obtion, delivery management, agile production served the prediction accuracy of around 98.4
of health-related products, and so forth, pro- percent while predicting the COVID-19
quarliferated to improve the near future economic antine cases of Kerala state using the
Rancatastrophe. domForest algorithm; and, the
manufactur</p>
      <p>
        Health departments and concerned oficials ing cost eficiency of 66 percent while
incorof smart cities are eager to proactively de- porating TA algorithm in the framework for
velop COVID-19 preventive kits and protect preparing the manufacturing task schedule.
the residents as healthcare resources, includ- In short, RFCCPM paves way for a cost-
efiing hospitals and doctors, are scarcely avail- cient production of products considering the
able to nurse the exponentially growing pa- availability of minimal employees during
pantients. However, manufacturing the preven- demic epochs such as COVID-19. The major
tive kits has challenges – i.e., the following contributions of the proposed work, as
disresearch questions need to be clarified / ad- cussed in this paper, include the following:
• RFCCPM, an RF-assisted manufactur- Tens of thousands of innovations and
meching framework, was developed for pro- anisms have been initiated in the recent past
ducing COVID-19 products, including using AI [19], [
        <xref ref-type="bibr" rid="ref16">32</xref>
        ], [
        <xref ref-type="bibr" rid="ref1">2</xref>
        ], and the other
innovapreventive COVID-19 products such as tive machine learning technologies. For
inface masks, face shields, hood caps, and stance, prediction models such as Deep
Neuso forth, understanding the increase / ral Networks have been applied to study the
decrease of COVID-19 cases of a region; increase of COVID-19 patients and the
curing status of diferent countries [
        <xref ref-type="bibr" rid="ref5">8</xref>
        ]. Authors
• the application of RFCCPM was exper- of [16] have predicted the number of
probaimented considering fourteen MSMEs ble deaths that happen in the tenth day due
of the Kerala state of India; and, to COVID-19.
• the Threshold Accepting (TA) algorithm A few researchers have applied prediction
of the framework was analyzed – i.e., models to study the transmission pattern of
the experiments revealed the cost- ef- the COVID-19 virus. For instance, authors of
ifciency of 66 percent while producing [
        <xref ref-type="bibr" rid="ref12">20</xref>
        ] have proposed a compartmental model
COVID-19 preventive kits. to classify the transmission patterns of the
virus; authors of [
        <xref ref-type="bibr" rid="ref2">5</xref>
        ] have applied long short
      </p>
      <p>
        The rest of the paper is described as fol- term memory (LSTM) models to analyze the
lows: i) Section 2 explores the state-of-the- risk involved in the spread of the virus;
simiart research in the application of RandomFor- larly, authors of [3] applied LSTM models to
est considering COVID-19 situations; ii) Sec- diferentiate corono-virus from the other
restion 3 discusses the inner details and func- piratory diseases such as pneumonia. In [14],
tionalities of the deep-learning assisted col- authors developed a mobile-enabled contact
laborative manufacturing platform; Section 4 tracing mechanism to avoid COVID-19
coninvestigates into the theoretical aspects of im- tacts. Authors of [1] have proposed a method
proving the cost involved in the production to improve the CNN training model as
sufiof COVID-19 products while incorporating cient COVID-19 images were not available in
RFCCPM framework; Section 5 discloses the the early period of the virus outbreak.
experimental results that were carried out at It is a known fact that the impact of
COVIDthe “work at home“ working environment by 19 highly afected the mobility of humans.
accessing the machines of the IoT cloud re- The speed in spreading the virus and the
seversearch lab; and, Section 6 consolidates the find- ity of occurrence difered from region to
reings and insights of the proposed work along gion. This puzzles almost all solution
archiwith a few future developments. tects [
        <xref ref-type="bibr" rid="ref13">21</xref>
        ]. The travel patterns changed as
people were led to commotions [23]. In [29],
authors studied the impact of lockdowns in three
2. Related Work University campuses of their vicinity; the
authors revealed the successive progress in the
Corona Virus 2019 (COVID-19) has marked network trafic patterns due to the discharge
its footprint in over 200 countries with se- of lockdown policies. In addition, approaches
vere acute respiratory syndrome which af- were devised to engage human resources
effected tens of millions of people. WHO has ifciently using online systems, preferably by
reported that 10021401 COVID-19 cases were social media [
        <xref ref-type="bibr" rid="ref14">24</xref>
        ] considering the lockdown
reported across the globe with a total 499913 and other idleness factors of cities. Notably,
number of deaths as on 29 June 2020 [
        <xref ref-type="bibr" rid="ref9">11</xref>
        ]. authors of [4] devised a value chain
considering the lockdown locations. assisted Collaborative COVID-19 product
man
      </p>
      <p>
        Many researchers and practitioners agree ufacturing (RFCCPM) approach. In a nutshell,
that online tools, including collaborative tools, the RFCCPM framework allows
manufacturwould become a mandatory point of sale for ers or smart city oficials to quickly produce
overriding the emerging lockdown situations the demanding COVID-19 essentials, for
exin cities [31]. Authors of [
        <xref ref-type="bibr" rid="ref4">7</xref>
        ] expressed the ample, preventive kits, depending on the
staimportance of a telemedicine approach in or- tus of locations in a cost-eficient manner.
Figder to protect the medical practitioners and ure 1 illustrates the entities of the framework.
non-COVID-19 patients while pursuing
consultations. A few researchers adopted mea- 3.1. RFCCPM Entities
sures to counteract the security challenges
of online platforms such as Facebook, Twit- The major entities involved in the
collaboter, Whatsapp, Zoom, Chatbots, VPN, and so rative production of COVID-19 products in
forth [30]. Similarly, authors of [
        <xref ref-type="bibr" rid="ref15">25</xref>
        ], quanti- a cost-eficient manner and their important
ifed the online COVID-19 information. functionalities are described below:
      </p>
      <p>
        Succinctly, a cloud-based online
productionenabling tool would increase the productiv- 3.1.1. Information Collector
ity of COVID-19 products. A few researchers
[
        <xref ref-type="bibr" rid="ref11">13</xref>
        ] [28] [
        <xref ref-type="bibr" rid="ref7">10</xref>
        ] have suggested a cloud-enabled Information Collector is a cloud-based
microservice model for production units. For in- service solution that collects the required
stastance, authors of [15] have developed a cloud- tus details of COVID-19 from smart city data
based integration of manufacturing units in repositories after the reception of
appropriorder to enable a remote-access of the units; ate permissions from them. A micro-service
Martino et al. [
        <xref ref-type="bibr" rid="ref3">6</xref>
        ] have proposed a semantic is a loosely-coupled tiny service that are
inrepresentation for establishing Industry 4.0 dependently deployable in clouds. In
genbased cloud services; Saivash et al. [26] have eral, the number of COVID-19 patients, the
established a collaborative digital dentistry prac-number of deaths due to the virus, and the
ticing platform using cloud manufacturing con- number of quarantined candidates are quite
openly available in major cities of various
countries as they are involved in reporting the
infectious status to WHO. The Information
Colcepts, and so forth; Gajamohan et al. [17] have
proposed a cloud-based robotics platform.
      </p>
      <p>Besides, Prateek et al. [22] has proposed a
computer vision-enabled approach to increase lector entity, a golang based cloud service,
provides the information in a csv format to the
RandomForest prediction engine after
converting the formats of the source repository.
the social distancing pattern in the
manufacturing location. However, not much research
work applies the cloud-based services to
develop COVID-19 products – i.e., very few
research works have been discussed to improve
the manufacturing aspects of COVID-19
preventive products.</p>
    </sec>
    <sec id="sec-2">
      <title>3. RFCCPM Framework</title>
      <sec id="sec-2-1">
        <title>This section explains the entities involved in the proposed RFCCPM framework, the RF</title>
        <sec id="sec-2-1-1">
          <title>3.1.2. RF Prediction Engine</title>
          <p>Predicting the number of quarantine cases in
a particular location is mandatory to decide
on manufacturing the number of COVID-19
preventive products. Smart city oficials could
utilize the data to fix policies and sketch
layouts for a complete/partial lockdown in a
location. Manufacturing preventive kits based
3.1</p>
          <p>The information is dynamic that the
proon the past information of the COVID-19 cases duction depending on the current
informamight not satisfy the requirements. Two is- tion would be a futile decision. Instead,
RFCsues are possible: CPM utilizes a RandomForest-based
predic• A large volume of COVID-19 preven- tion of COVID-19 cases for the future months
tive kits may be required in a short pe- so that the framework could proactively
recriod – i.e., the productions might get ommend the concerned for deciding on the
hampered due to the limited availabil- production of the preventive kits. Besides,
ity of employees during the period; or, the RFCCPM enables a collaborated
manufacturing platform that attains the
manufac• Manufacturing a surplus amount of pre- turing schedule with the limited number of
ventive kits leads to under-utilization. employees during the raging pandemic
period in a cost-eficient manner.
masks using N95 masks which provide
higher protection from COVID-19
impacts or using cloths; ii) face shields
may be manufactured using low-grade
disposable plastics or poly-carbonates;
iii) shoe covers could be fabricated
using of non-woven materials or polypro
pylene fabrics; and so forth. In
addition to the COVID-19-related products,
manufacturing the packing device that
holds the preventive products is also
considered as a task. The Task Designer
entity of the RFCCPM framework
prepares a set of optional combinations for
manufacturing diferent COVID-19
products of preventive kits.
2. Packaging Products: Packaging is a task
that needs to be accomplished by
assembling all manufactured products into
the packaging device.
3.1</p>
        </sec>
      </sec>
      <sec id="sec-2-2">
        <title>In general, the RF algorithm is a subset of</title>
        <p>
          AI and machine learning [
          <xref ref-type="bibr" rid="ref6">9</xref>
          ]; it is an
ensemblebased learning algorithm. The RF Prediction
Engine entity of RFCCPM incorporates the
algorithm in order to train and predict the
COVID-19 quarantine cases of a region. The
training model is prepared from the
information such as latitude, longitude, number of
deaths, number of quarantined candidates, and
so forth, for the locations where the
preventive kits are required. The engine attempts to
improve the prediction accuracy depending
on the tuning parameters of the algorithm
such as   and the other variable selection
methods. More detailed information about
the algorithm is found in the previous
literature [27].
        </p>
        <sec id="sec-2-2-1">
          <title>3.1.3. Task Designer</title>
          <p>Tasks such as manufacturing face masks, face
shields, gloves, shoe covers, infrared
thermometers, sanitizer, kit cover, and packaging them 3.1.4. Scheduler
need to be formulated depending on the avail- Scheduler organizes tasks depending on the
able manufacturing units within the reach- cost factors of allotting tasks to specific
manable vicinity. The Task Designer entity of the ufacturing units – i.e., it identifies the
manframework attempts to pool tasks in a cloud ufacturing tasks given the information about
database, namely, mongodb database. It con- the available manufacturing units of a region/
siders several combinations of manufactur- location. Although the main objective of the
ing options while designing tasks. The tasks Scheduler entity is to reduce the
manufacturare described in a machine-readable format ing cost, it has to consider several other
pasuch as XML, jade, or JSON. rameters such as the availability of
appropri</p>
          <p>
            The tasks included in the RFCCPM frame- ate manufacturing units. For instance, if a
work are classified into two broad categories: face mask needs to be manufactured using
i) Manufacturing tasks and ii) Packaging tasks: N95, an appropriate manufacturing unit that
1. Manufacturing COVID-19 Products: Man- is nearest to the vicinity should be available.
ufacturing COVID-19 preventive kits in- Besides, it has to consider the prediction
reclude manufacturing products such as sults available through the RF prediction
enface masks, face shields, gloves, hood gine. This is crucial as lockdown situations
caps, shoe covers, thermometers, sani- could hamper the transfer of products for the
tizers, and so forth. These products are final preparation of predictive kits.
Threshoften manufactured in diferent cate- old Accepting (TA) [
            <xref ref-type="bibr" rid="ref8">18</xref>
            ] [27] scheduling
algogories. For instances, i) face masks could rithm is applied in the framework although
be manufactured at diferent levels of several other scheduling algorithms could be
protections – i.e., manufacturing face implemented in the framework. The inner
details of the cost-eficiency of the framework,
while utilizing the Scheduler entity, is discussed
in Section 4.
          </p>
        </sec>
        <sec id="sec-2-2-2">
          <title>3.1.5. Processes</title>
          <p>The following points highlight the crucial
processes (see Figure 2) involved in the
collaborative manufacturing of COVID-19
preventive kits from geo-distributed manufacturing
locations considering the forecasting
information of the RF Prediction Engine:
enable smart city oficials or enterprises
to quickly transport the required amount
of preventive kits before the
commencement of the “lockdown“.
5. At last, an appropriate schedule of tasks
depending on the number of available
manufacturing units is prepared based
on the TA algorithm. The scheduling
aims at reducing the costs involved in
the production of the entire COVID-19
preventive kits of a region.
4.1 TA Scheduling Approach
old, final threshold, threshold value, number
of iterations, and the reduction step size of
TA are assigned to the algorithm.</p>
          <p>In the meantime, the costs involved ( )
for manufacturing the individual category of
products from various manufacturing sites  
and their corresponding manufacturing time
  are collected in the cloud-based mongodb
database. In addition, the distance   between
the manufacturing units of various locations
is stored in the database.</p>
          <p>Next, depending on the task set produced
by the TA algorithm, the solutions are
obtained for each manufacturing task set   –
i.e., i) the cost    involved in the
production of an entire COVID-19 preventive kit of a
task set is calculated depending on the
available manufacturing costs. Note that the
products could be of diferent categories in the
COVID-19 preventive kit; ii) similarly, the
total manufacturing time    of the task set
is evaluated; and, the total distance  
involved for transporting the manufactured
products between the manufacturing units in a
task set is calculated. Depending on these
values, the combined objective  of a task
set is calculated as shown in the equation 4.1.</p>
          <p>where, C represents categories of P
products. For instance, a face mask product
manufactured using N95 in the manufacturing site
  3 is represented as C2{P1}–  3; a face  = ∑(   ,    ,   ) (1)
shield manufactured using polycarbonate in
  2 is represented as C2{P1}–  2. A com- The  of each task set   in a population
plete list of products and their categories is set   is evaluated in an iterative manner.
shown in Table 1. In the above task set, eight However, only the best task set is stored in
products are included. the database considering the minimal
manu</p>
          <p>Next, multiple sets of manufacturing tasks facturing costs of the production tasks. Once
is formulated in one population   of TA – when the entire population set   is
evalui.e., each population set has collections of task ated, the local best task set   is recorded
sets   . Each manufacturing task set   , the along with the obtained manufacturing time
preventive kit, consists of one category of the or costs. Next, the populations are perturbed
variety of products such as face mask, face with newer combinations and their
correspondshield, gloves, head cap, shoe cover, thermome- ing  of task sets   is recorded. The
threshter, sanitizer, and package. Besides, the ini- old value ℎ of TA is reduced while increasing
tialization parameters that are required for the populations. Whenever the obtained 
the scheduling algorithm such as initial thresh- reaches the pre-assigned minimal  value
or whenever the threshold value ℎ attains
the final threshold value, the algorithm stops
the further creation of iterations or
evaluaamong the local task sets 
tions. Finally, the global best task set 
is recorded based on the minimal 

values</p>
          <p>. The
pictorial representation of the TA algorithm is
shown in Figure 3.</p>
        </sec>
      </sec>
    </sec>
    <sec id="sec-3">
      <title>5. Experimental Results</title>
      <sec id="sec-3-1">
        <title>This section manifests the importance of the</title>
        <p>
          RFCCPM framework. At first, the
experimental setup is explained; next, the accuracy
obtained due to the RF Prediction engine is
revealed; and, at last, the identification of the
manufacturing task schedule considering the
availability of manufacturing units and the
costs involved is disclosed using TA algorithm.
5.1. Experimental Setup
The experiments were carried out at a DELL information of a particular location in the
Kerprecision tower 7810 machine of the IoT cloud
research laboratory. The machine utilizes the
ala state of India. The datasets were collected
from the COVID-19 repository of the Kerala
4.15.0-106-generic kernel Ubuntu version. The government site [
          <xref ref-type="bibr" rid="ref10">12</xref>
          ]. It was modified with
using golang version v1.14. The entire ex- from 1.3.2020 to 26.6.2020.
predictions were carried out by prediction
algorithm written in R programming language
version R4.0.0 and the services were written
periments were carried out considering the
list of products and their categories illustrated
in Table 1; Nineteen MSMEs of fourteen
locations within one government agency of
Kerala were utilized for calculating the
manufacturing costs.
5.2. RF Predictions
In order to find the requirement for
producing the number of COVID-19 preventive kits
at the required prices or budget, predictions
were undertaken to forecast the quarantine
appropriate latitude and longitude
information for the manufacturing locations of
consideration. The datasets had values recorded
        </p>
        <sec id="sec-3-1-1">
          <title>5.2.1. Validation Results</title>
          <p>At first, the manifestation of utilizing the RF
algorithm while predicting the possible
number of quarantine candidates at a location was
validated. To do so, fifty percent of the
observations were utilized for creating a
training model and the other fifty percent of the
observations were tested using the RF
algorithm.</p>
        </sec>
      </sec>
      <sec id="sec-3-2">
        <title>Figures 4 depicts on the training and the testing values of the number of quarantine candidates of four diferent manufacturing MSME</title>
        <p>5.2</p>
        <p>30 Date6ID0 90
(a) Quarantine Cases in Kasaragod
120 0</p>
        <p>120
30 Date6ID0 90
(b) Quarantine Cases in Wayanad
yadnaa
W
m
irvahanpunhuaaT
r
t
30 Date6ID0 90
(c) Quarantine Cases in Kottayam
120
0 30 Date6ID0 90
(d) Quarantine Cases in Thiruvananthapuram
120
locations, namely, Kasaragod, Wayanad, Kot- 5.2.2. Accuracy Improvements
tayam, and Thiruvanthapuram. The y-axis of
The prediction accuracy, which is measured
the Figures describes the number of
quarantine cases for these locations. The x-axis dis- as  2 values, was evaluated to understand if
further improvements are possible while
tuncusses the increasing date of COVID-19 which
ing the algorithm-specific parameters. It was
is represented as unique identifiers. observed that there were a few possibilities
The training values are represented in points
such as including more number of variables
Iatncdotuhlde tbeestoebdsevravluedesfraoremsthhoewfignurinesbtlhuaetlitnhees. while dividing at each tree node (  ) to
improve the prediction accuracy. Accordingly,
training and testing values are almost inclined
experiments were held by increasing the
numto one another – i.e., the prediction accuracy
ber of variables for establishing the training
is better for the experiment. models. Table 2 discloses the prediction
acHence, it is proven to utilize an RF
algocuracy values that were observed while
contrqiiunthiermecdafsCoerOspVwrIheDdic-i1hct9irnpeglraettveheentotCivtOheeVkIniDtus-m1in9beaqrucoiatfryarnoer--  ductin=g10e,x perim=e1n5t,sawnidt h    =2=02,, f or fou=r5-,
teen manufacturing locations of Kerala.
a location of diferent geo-spatial monitoring As seen in Table 2, it was inferred that the
points. prediction improvement of over 5 percent is
noticed in several locations – for instance, note Table 3
the prediction accuracy observed in Thiru- Number of Quarantine Cases in Kerala Districts
vananthapuram manufacturing station while
improving   values from 2 to 20;
similar is the case with the other
manufacturing locations such as Kollam, Kottayam, and
Kasaragod.</p>
        <p>SlNo Location 35ℎ Day
1 Kasaragod 433.52
2 Kannur 1196.2
3 Wayanad 394.02
4 Kozhikode 252.35
5 Malappuram 415.76</p>
        <sec id="sec-3-2-1">
          <title>5.2.3. Prediction Results 6 Palakkad 605.71</title>
          <p>7 Thissur 291.02
Finalizing the algorithm-specific parameters 8 Kochi 2470.02
to obtain higher accuracy – i.e.,   =20 and 9 Idukki 612.55
number of trees  =100, predictions were 10 Kottayam 1540.22
achieved for the future. The obtained predic- 11 Alappuzha 199.48
tion results were illustrated in Table 3. 12 Pathanamthitta 147.6</p>
          <p>From Table 3, smart city oficials or health 13 Kollam 629.7
department or the concerned oficials could 14 Thiruvananthapuram 1084.24
decide to instruct Micro-Small-Medium-Enterprises
(MSMEs) for manufacturing COVID-19
preventive kits in a cost-eficient manner. However, the recommendations about which</p>
          <p>For example, the smart city oficials of Thiru- manufacturing MSME needs to manufacture
vanthapuram shall decide to procure 20 COVID-the products in a cost-eficient manner would
19 preventive kits for the thirty-fifth day based be dependent on the TA algorithm of the
frameon the recommendations of the RFCCPM frame-work. Besides, the TA parameters define the
work – i.e., a production of 20485 preventive tuning of these recommendations in an
elekits has to be manufactured at a lower cost. gant manner.
the cost involved in the production of the prod- identified in any one of the task set of a
popturer could handle manufacturing all prod- in the consecutive iterations or populations.
5.3. Manufacturing Jobs – Cost</p>
          <p>Eficiency</p>
        </sec>
      </sec>
      <sec id="sec-3-3">
        <title>It is mandatory to tender works to diferent manufacturers depending on the quality and ucts. Questions such as i) Who needs to be ofered the tender?</title>
        <p>Whether one
manufacucts? This subsection identifies the job
schedule that considers the cost-eficient
manufacturing of products using the TA algorithm.</p>
      </sec>
      <sec id="sec-3-4">
        <title>The following TA parameter settings were utilized while searching for the cost-eficient</title>
        <p>Threshold = 0.0
Initial_Threshold = 0.099
Final_Threshold = 0
Threshold_Reduction = 0.001
Number of Iterations = 1000
Population Size = 50
The local best value</p>
        <p>obtained for
the experiments consisting of 50 populations
with 1000 iterations of TA algorithm is shown
in Figure 5.
ufacturing units or MSMEs:
collaborative COVID-19 preventive kit man- the minimal 
The</p>
        <p>value is calculated using Eqn. 4.1. uled for the manufacturing site  
It could be observed that the local best 
of category 2 is scheduled in  
7; face shield
value and the manufacturing cost identified
for diferent sites vary for diferent
populations – i.e., the algorithm searches for the MSMEs
or manufacturing units that ofer a minimal
manufacturing cost. Even if a lower cost is
ulation, the task sets were perturbed in
order to search for the best possible solution</p>
      </sec>
      <sec id="sec-3-5">
        <title>In average, the manufacturing cost obtained</title>
        <p>among local best task sets</p>
        <p>From the available local best values of task
sets, the global best value 
lated by the TA algorithm. It is noticed that
 is
calcu is Rs. 11013.</p>
        <p>value is found as 5454; the
minimal manufacturing cost is Rs.3734 for
manufacturing one preventive COVID-19 kit; and,
the manufacturing time is 1620 seconds. The
task set that levied the global best result as
low:
per the TA algorithm 

is given
beC3{P1}, C1{P2}, C2{P3}, C1{P4},</p>
        <p>C2{P5}, C1{P6}, C1{P7}, C1{P8}
MS7, MS3, MS5, MS13, MS10,</p>
        <p>MS4, MS4, MS3</p>
      </sec>
      <sec id="sec-3-6">
        <title>As seen, the face mask of category 3 is sched</title>
        <p>6. Conclusion</p>
        <p>The rapid dynamics of the COVID-19
pandemic has manifested the requirement of
innovations in various sectors, including the
manufacturing/fabrication sector. This article pro- [3] Ali M. Hasan, Mohammed M.
ALposed an RFCCPM framework that combines Jawad, Hamid A. Jalab, Hadil Shaiba,
the Random Forest and Threshold Accepting Rabha W. Ibrahim, and Ala R.
ALalgorithm for enabling collaborative manu- Shamasneh, Classification of Covid-19
facturing of COVID-19 preventive kits in a Coronavirus, Pneumonia and Healthy
cost-eficient manner. The framework was Lungs in CT Scans Using Q-Deformed
evaluated considering the COVID-19 quaran- Entropy and Deep Learning Features,
tine information and MSME enterprises of four- in Entropy Journal, Vol. 22, No. 517,
teen manufacturing locations in Kerala, In- doi:10.3390/e22050517, pp. 1 – 15, 2020.
dia. The necessity of the RFCCPM framework [4] Alok Baveja, Ajai Kapoor, Benjamin
was manifested through experiments that re- Melamed, Stopping Covid-19: A
vealed a cost eficiency of 66 percent for the pandemic-management service value
identified job schedule. chain approach, Annals of Operations
Research, Vol. 289, pp. 173–184, 2020.</p>
      </sec>
    </sec>
    <sec id="sec-4">
      <title>Acknowledgment</title>
      <sec id="sec-4-1">
        <title>The authors would like to thank IIIT-Kottayam</title>
        <p>oficials, AIC-IIITKottayam, and AIM oficials,
for providing constant support through out
the research / entrepreneurial career.</p>
      </sec>
    </sec>
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