Launch Weights with Rubber Bands

Total Page:16

File Type:pdf, Size:1020Kb

Launch Weights with Rubber Bands Things Move Launch Weights Purpose with Rubber Bands To compare the distances traveled by launched objects having the same size and shape but different weights. Process Skills Materials Predict, observe, measure, collect data, interpret data, q tape measure communicate, identify and control variables, draw conclusions or meter stick q masking tape Background q permanent marker Objects can be at rest or in motion. To move an object, or to stop an object from moving, a force must be used. It takes less force (per group) to move lighter objects, whereas it takes more force to move q Data Sheet heavier objects. When the same amount of force is applied to q 1 35 mm film canister similar objects that have different weights (masses), the objects or other small will travel different distances. In this activity, students will container with lid use rubber bands that are placed around their feet to launch q 1 extra-long rubber canisters away from their bodies. By standardizing the launch band or several mechanism, students will be able to compare the distances smaller ones traveled by canisters of different weights. q 30 pennies q 1 zippered baggie Time – 45–60 minutes Grouping – Whole class and small groups Aerial view Procedure Preparation 1. Collect film canisters ahead of time. Most photo developing labs will save canisters and donate them for a school project if you make a request in advance. Film canisters with lids that fit inside the open end will work best. If canisters are not available, consider similar small containers, such as: plastic baby-food jars with lids, empty yogurt containers with lids, plastic eggs (seasonal), small plastic food-storage containers with lids, or breath-mint tins. 2. Use a permanent marker to draw a line around the midsection of each film canister. This mark will help students be consistent in launching each canister from its center. Figure A © Learning A–Z All rights reserved. 1 www.sciencea-z.com EXPERIMENT Things Move—Launch Weights with Rubber Bands 3. Use a 25-foot tape measure to prepare a launch area on the classroom floor, in a hallway, or in another location with a spacious, smooth floor. Attach a 25-foot length of masking tape to the floor in a straight line, and ask student volunteers to help you mark each centimeter and meter (or inch and foot) with small and © iStockphoto.com/Feng Yu larger dash marks. Using masking tape Donald Erickson © iStockphoto.com/ will eliminate the risk of using a sharp- edged, retractable tape measure with young students. If you prefer that groups not have to take turns launching their canisters, set up more than one launch area. Be sure to leave adequate space between them for 5. Obtain extra-long rubber bands from an safety reasons. office-supply store. When relaxed, these 4. It is important that each launch be made rubber bands are about 18 cm (7 in.) long, from the same starting point and in the and they safely stretch to at least 60 cm same direction so that each group uses (2 ft.). Alternatively, you can link a set of an approximately equal amount of force three normal-sized rubber bands together in each trial. The only significant variable for each group. Provide enough rubber should be the weight of the canister bands for each group. being launched. Use more masking tape 6. Consider assigning roles for each student to mark precisely where each launch within a cooperative group, which may should take place: include group leader, launcher, measurer, • Use masking tape to mark two small canister assembler, and penny counter. squares, one on either side of the zero Keep the number of students in each group mark of the launch line. The near sides small (3–4 students per group). Some of the squares should be 30 cm (12 in.) students may have more than one role. apart. Students who serve as “launchers” Discuss How Objects Move will sit on the ground with their legs Ask students how things move. Discuss a spread slightly in front of themselves variety of objects and encourage students to and will place their heels in these boxes. suggest ways each object can move. Introduce • From the midpoint between the squares, the word force and explain that things move measure 15 cm (6 in.) in the opposite because of a force being used on them. A force direction of the launch. Mark this spot is a push or a pull in any direction. Model a with masking tape in the shape of an X. force in action by slowly pushing and then This will be the launching spot and pulling a nearby object, such as a chair. Invite will standardize how far back students volunteers to carefully demonstrate pushing should pull the rubber band. and pulling other common objects. © Learning A–Z All rights reserved. 2 www.sciencea-z.com EXPERIMENT Things Move—Launch Weights with Rubber Bands Launch Weights with Rubber Bands 5. Model the activity (see Figure A). Place 1. Prepare three film canisters, labeled 0, one long rubber band (or a chain of three 15, and 30, and place the corresponding smaller rubber bands) around both feet number of pennies in each one. Shake of a student volunteer. Coach the student each canister so that students can hear to sit with his or her legs spread and heels that two of the canisters have pennies placed in the masking-tape squares. He inside. Explain that one canister has or she should be facing the long, straight no pennies inside, one has 15 pennies, piece of tape on the ground. Show and one has 30 pennies. Pass the film students a film canister, noting the line canisters around. Ask students which around its midsection. Explain that the one is heavier (the one with 30 pennies) rubber band must be lined up at the line and why (it has the most pennies inside). drawn on the film canister. The launcher should use his or her fingers to hold the 2. Explain the activity. Then invite students top and bottom of the canister, keeping to make predictions about which film it upright, and then release all fingers canister will move the greatest distance at the same time in order to launch it. from its starting point if launched the same way with the same rubber band. Ask Have the student volunteer pull the film students to explain why they made their canister (and the rubber band) toward his prediction. Record students’ predictions or her body until the canister is resting and reasons on the board, and have in contact with the ground on the launch students reflect on them after the activity. pad, which is marked with an X. Ask the volunteer to quickly open his or her 3. Place students into groups and assign fingers when you say “Go!” Once the film roles. Use the data sheet to model canister has been launched, demonstrate recording a prediction. Give a data sheet how to read the measured line of tape to to the recorder in each group. Have each determine the distance that the canister student write the group’s prediction in traveled. Then show students where they the appropriate place. should enter the measurement on their 4. Bring the class to the reserved location data sheet, including the proper units for with a spacious, smooth floor. Make sure measuring length. that students bring their data sheet and TIP: Students may all want to try the pencil. Have the class sit around one of launch themselves. One option is to have the pre-measured and marked launching each student complete his or her own data areas. Explain safety rules, such as: sheet. Alternatively, let all students from • Film canisters may only be launched each group attempt the launch and ask along the ground, not through the air. them to record their own data in a science journal or notebook. Then help students • Film canisters may only be launched by calculate their group’s average distance— pulling the rubber band back to the X. or simply have each group estimate how • Film canisters may only be launched far its canister traveled overall—during if no one is in the launch target area. each trial. If the group shares one data • Film canisters may only be launched sheet, it should record a single when the teacher says “Go.” measurement for each trial. © Learning A–Z All rights reserved. 3 www.sciencea-z.com EXPERIMENT Things Move—Launch Weights with Rubber Bands 6. Give each group a film canister, a large 8. Instruct each group to take the tape off the rubber band, and a baggie containing 30 lid and to pour the remaining 15 pennies pennies. Provide masking tape in a central into their zippered baggie, leaving the area. Have students start by putting all 30 canister empty (see Figure D). Students pennies into their film canister and taping should reseal the film canister with the it closed (see Figure B). Once all groups are same amount of tape used earlier. Once ready and film all groups are ready and film canisters canisters are pulled are pulled back to their launch pads, back to their launch call out “Go!” and monitor the launches. pads, call out “Go!” Once again, assist students as needed and monitor the with measuring launches. Remind and recording data. students not to move [Note: The empty the canister until they film canisters may have measured the go farther than the distance and recorded line of tape on the the result on their Figure B ground can measure.
Recommended publications
  • Product Catalog 2020
    PRODUCT CATALOG It’s not the easiest way to produce a quality diving gear, but it’s the best way we know to ensure that our diving products meet the highest standards. No shortcuts. Pure craft. It’s the SANTI way. For you. DRYSUITS Silver Moon E.Motion SILVER MOON drysuit in special color edition is unique among other drysuit models, it emphasizes the original and modern approach to diving. Is designed for divers who want to be noticeable and feel like a part of distinguished, limited group of divers. Made of lightweight Nylon fabric, which provides great flexibility and essential durability. Critical points, particularly vulnerable to damage and abrasion, have been adequately protected with a durable E.Lite fabric. The original color combination looks very attractive on a diver, especially underwater. Silver Moon has a specially designed stylish and modern logo, emphasizing dynamic features of the product. The Unique Limited Silver Moon Line was created only in limited number of drysuits, which is additionally accompanied by special benefits. Silver Moon is equipped in standard with an innovative SANTI Smart Seals® system and Neoprene hood ‘7 or ‘11. Features: • total weight: 3,4 kg, • fabric: Ripstop Nylon/Butylene 235 g/m2 and Ripstop Nylon/Butylene/Polyester 535 g/m2 (elbows, crotch/bottom area, knees, lower front of the legs). In standard equipped with: • colors: silver, black, • front aquaseal zip covered by an additional zip-fastened flap, • telescopic torso, • hood ‘11 or ‘7, • neck seal made of latex insulated by 3 mm neoprene collar, • reflective silver tape at the sleeve piping, • Flexsole boots, • Apeks inlet valve, • high-profile Apeks outlet valve, • two spacious utilities pockets with elastic bungee loops and pocket for wet notes, • the right pocket with zip-fastened flap with a small pocket for double ender clip, • latex wrist seals, • SANTI SmartSeals® ring system for easy seals exchange, • inside suspenders with handy pocket, • medium pressure hose 75cm long, • STAY DRY travel bag, • Silver Moon T-shirt.
    [Show full text]
  • Bicentennial Source Book, Level I, K-2. INSTITUTION Carroll County Public Schools, Westminster, Md
    --- I. DOCUMENT RESUME ED 106 189 S0,008 316 AUTHOR _Herb, Sharon; And Others TITLE Bicentennial Source Book, Level I, K-2. INSTITUTION Carroll County Public Schools, Westminster, Md. PUB DATE 74 NOTE 149p.; For related guides, see CO 008'317-319 AVAILABLE FROM .Donald P. Vetter, Supervisor of Social Studies, Carroll County Board of Education, Westsinister, Maryland 21157 ($10.00; Set of guides.I-IV $50:00) EDRS PRICE MF-$0..76 HC-Not Available from EDRS..PLUS POSTAGE DESCRIPTORS *American Studies; Class Activities; *Colonial History (United States); Cultural Activities; Elementary Education; I structionalMaterials; *Learning Activities; Muc Activities; Resource Materials; Revolutionary Wa (United States); Science Activities; *Social Studies; Icher Developed Materials; *United States History IDENTIFIERS *Bicentennial ABSTRACT This student activities source book ii'one of a series of four developed by the Carroll County Public School System, Maryland, for celebration of the Bicentennial. It-is-specifically designed to generate ideas integrating the Bicentennial celebration into various disciplines, classroom activitiese.and school -vide 4vents at the kindergarten through second grade levels. The guide contains 81 activities related to art, music, physical-education, language arts, science, and social studies. Each activity includes objectives, background information, materials and resources, recommended instructional proce ures,and possible variations and modifications. The activities are organized around the Bicentennial themes of Heritage, Horizons, and Festival. Heritage. activities focus on events, values, traditionp, and historical objects of the past. Horizon activities stress challenging the problems of the present and future. Festival activities include such activities as community craft shows, workshops, folk music, and dance performances. (Author /ICE) C BICENTENNIAL SOURCE BOOK LEVEL I .
    [Show full text]
  • Preparing Wetsuits
    Lesson: Learning About Textiles Preparing Wetsuits Step 1: Create a Control Wetsuit Materials Needed: 2 zipper plastic baggies Creating the Control Wetsuit: Turn one baggie inside out and then place it inside the other baggie. Squeeze out as much air as possible and zipper the inside baggie to the outside baggie. Check to make sure you can put your hand inside your control wetsuit. Be sure the zippers are zipped together! Lesson: Learning About Textiles Step 2: Create a Feather Wetsuit Materials Needed: 2 zipper baggies 2 cups of feathers Creating the Feather Wetsuit: Place the 2 cups of feathers inside one of the baggies. Turn the other baggie inside out and then place it inside the baggie with the feathers. Make sure to keep the feathers between the two baggies. Squeeze out as much air as possible and zipper the inside baggie to the outside baggie. Gently use your fingers to spread the feathers evenly around both sides of the baggie. Check to make sure you can put your hand inside your feather wetsuit. Lesson: Learning About Textiles Step 3: Create a Blubber Wetsuit Materials Needed: 2 zipper baggies 4 heaping tablespoons of solid shortening Creating the Blubber Wetsuit: Place the 4 heaping tablespoons of solid shortening inside one of the baggies. Turn the other baggie inside out and then place it inside the baggie with the shortening. (Make sure to keep the shortening between the two baggies.) Squeeze out as much air as possible and zipper the inside baggie to the outside baggie. Gently use your fingers to spread the shortening evenly around both sides of the baggie.
    [Show full text]
  • Physics 4311 ANSWERS: Sample Problems for Exam #2 (1)Short
    Physics 4311 ANSWERS: Sample Problems for Exam #2 (1)Short answer questions: (a) Consider an isolated system that consists of several subsystems interacting thermally and mechanically with each other. What does the Second Law of Thermodynamics say about the entropies of the subsystems when the system is undergoing a change? ANS: The Second Law says that the sum of the subsystem entropy changes can never decrease. It doesn’t say anything about the change for any individual subsystem. (b) Two thermally interacting subsystems form a thermally isolated composite system. The subsystems have identical total energies and pressures, but different values of $. Will net heat transfer occur between the subsystems, and if so, in which direction will it occur? ANS: Since the $ values are different, the subsystems are not in thermal equilibrium, and heat transfer will occur. Energy will be transferred from the subsystem with the lower value of $ to the subsystem with the higher value of $. (c) Briefly describe what happens to a macroscopic system’s microscopic quantum states and how the states are populated when the system’s energy changes by means of heat transfer or when work is done on (or by) the system. Use words not equations. ANS: Heat transfer changes which states are occupied, but doesn’t affect the energies of the states. Work changes the energies of the states. States may also be created or destroyed by varying external system parameters, i.e., by doing work. (d) When a system undergoes an adiabatic change of state, what must happen for its energy to change? ANS: For an adiabatic change, Q = 0, and the First Law states that )E = !W.
    [Show full text]
  • Rubber Bands, the Second Law of Thermodynamics, and Entropy
    Rubber Bands, the Second Law of Thermodynamics, and Entropy One of the main causes for a rubber bands’ incredible elasticity can be attributed to entropy and the Second Law of Thermodynamics. According to this law, a system or body will move from a state of order to another state of disorder naturally. And entropy can be defined as lack of order in a system. Take the case of a rubber band. The individual molecules that make up the rubber band are called polymers. These polymers are chemically linked to one another via a natural process called crosslinking to form a single giant molecule. In fact, it is this crosslinking that help the rubber band retain its shape after being stretched out. The crosslinks keep the polymers tied together in spite of them being stretched. In the absence of these crosslinks, the polymers would fail to come back together again and the rubber band would fail to retain its original shape, thus becoming deformed. This usually happens after the rubber band is stretched repeatedly a number of times (the crosslinks become weak and would not be able to tie the polymers together again). What exactly happens when rubber bands are stretched? The individual polymers present in a rubber band are usually coiled around each other in a tangled, haphazard arrangement. When the band is stretched, these polymers lengthen out to form an ordered line with all the molecules facing the same direction. This is where the entropy we talked about comes into play. When the force applied on the rubber band is removed, the polymers get a natural urge to return back to their original entropic state, aka the tangled form.
    [Show full text]
  • Northampton County. Pennsylvania. (2)A Description of a Geological Field Trip to Northampton County
    DOC' Plft47 RESt NE ED 033 03b SE 007 474 'Diggers to Divers. GeOlogy K -6; Elementary Science ()nit No.2. Bethlehem Area Schools. Pa. Pub Date 68 Note 217p. LDRS rticrrr $1.00 He Not Available from EMS. Descriptors -Concept Formation. *Curriculum Guides. Discover; Learning. *Earth Science. *Elementary School Science. *Geology. Instructional Materials. Marine Biology. Oceanology. Problem Solving. *ScienceActivities. Teaching Procedures Thiscurriculumguide.partofaseriesofscienceunits.stresses concept-learning through the discovery approach and child-centeredactivitiesIt is intended that the unit will be studied in depth by grades 3. 4. 5. and 6. Kindergarten pupilswillstudy theunitinless detail.Our Useful Rocks" isstudied in the kindergarten.'Rocks Then and Nowin grade3.Petrology'ingrade 4. 'Oceanography' in grade 5. and "Geology' in grade 6. The section for each grade contains (1) understandings to be discovered. (2) activities. and (3) activities to assign for homework or individual research. Each activity is introduced bya leading question.- followed by a list of materials anda description of the procedure to be followed. Children are taught to observe. infer. discuss problems anduse reference and audio-visual aid materials. There isan index of science textbooks for reference for the teacher. The 40-page appendix contains (1)a brief geological history of Northampton County. Pennsylvania. (2)a description of a geological field trip to Northampton County. (3) a description of thecommon rocks and minerals, and (4) various geological and oceanographic charts. maps and tables. [Not available in hard copy due to marginal legibility of original document). (LC) 1 0 b \CO. c., .Or Air I Air EDUCATION & WELFARE U S. DEPARTMENT Of HEALTH.
    [Show full text]
  • Thermovid 8 05
    Statistical Molecular Thermodynamics Christopher J. Cramer Video 8.5 Rubber Band Thermodynamics Stretching a Rubber Band A restoring force f is present when a rubber band is stretched to be longer than its equilibrium length—for modest displacements, f is a constant independent of length l Work must be done on the rubber band to stretch it, and that work is given by: δw = fdl − PdV non-PV work PV work Note that f is positive as work is done on the sytem to increase€ the rubber band length Δl Isothermal Stretching We can safely assume that the volume change of the rubber band is negligible for small stretches, in which case for an isothermal stretch, we will be working at constant T and V; this suggests that we should consider the Helmholtz free energy. A = U − TS If we take the the differential: dA = dU − TdS − SdT = δqrev + δwrev − TdS − SdT € = TdS + fdl − PdV − TdS − SdT dV = dT = 0 at = fdl − PdV − SdT ⎛ ∂A⎞ constant T and V = fdl f = ⎜ ⎟ ⎝ ∂l ⎠T € € Relating Force to Entropy ⎛ ∂A⎞ A = U − TS f = ⎜ ⎟ ⎝ ∂l ⎠T Differentiate A wrt l : ⎛ ∂A⎞ ⎛ ∂U ⎞ ⎛ ∂S⎞ € ⎜ ⎟ = ⎜ ⎟ − T⎜ €⎟ ⎝ ∂l ⎠T ⎝ ∂l ⎠T ⎝ ∂l ⎠T The internal energy U of a perfect elastomer depends only on temperature T and not on length l, much as U for an ideal gas€ depends only on T and not on volume V ⎛ ∂A⎞ ⎛ ∂S⎞ ⎜ ⎟ = f = −T⎜ ⎟ ⎝ ∂l ⎠T ⎝ ∂l ⎠T € Relating Force to Entropy This relationship suggests that with increasing T, the force ⎛ ∂S⎞ will decrease if the entropy increases with stretching, but f = −T the force will increase if the entropy decreases with ⎜ ⎟ ⎝ ∂l ⎠T stretching.
    [Show full text]
  • The Thermodynamic Properties of Elastomers: Equation of State and Molecular Structure
    CH 351L Wet Lab 4 / p. 1 The Thermodynamic Properties of Elastomers: Equation of State and Molecular Structure Objective To determine the macroscopic thermodynamic equation of state of an elastomer, and relate it to its microscopic molecular properties. Introduction We are all familiar with the very useful properties of such objects as rubber bands, solid rubber balls, and tires. Materials such as these, which are capable of undergoing large reversible extensions and compressions, are called elastomers. An example of such a material is natural rubber, obtained from the plant Hevea brasiliensis. An elastomer has rather unusual physical properties; for example, an ordinary elastic band can be stretched up to 15 times its original length and then be restored to its original size. Although we might initially consider elastomers to be a solids, many have isothermal compressibilities comparable with that of liquids (e.g. toluene), about 10-4 atm-1 (compared with solids such as polystyrene or aluminum which have values of ~10–6 atm–1). Certain evidence suggests that an elastomer is a disordered "solid," i.e., a glass, that cannot flow as a result of internal, structural restrictions. The reversible deformability of an elastomer is reminiscent of a gas. In fact the term elastic was first used by Robert Boyle (1660) in describing a gas, "There is a spring or elastical power in the air in which we live." In this experiment, you will encounter certain formal thermodynamic similarities between an elastomer and a gas. One of the rather dramatic and anomalous properties of an elastomer is that once brought to an extended form, it contracts upon heating.
    [Show full text]
  • Physiological Response of Female Sport Divers to Exercise During Treadmill and Underwater Workbouts
    INFORMATION TO USERS This reproduction was made from a copy of a document sent to us for microfilming. While the most advanced technology has been used to photograph and reproduce this document, the quality of the reproduction is heavily dependent upon the quality of the material submitted. The following explanation of techniques is provided to help clarify markings or notations which may appear on this reproduction. 1. The sign or "target" for pages apparently lacking from the document photographed is "Missing Page(s)". If it was possible to obtain the missing page(s) or section, they are spliced into the film along with adjacent pages. This may have necessitated cutting through an image and duplicating adjacent pages to assure complete continuity. 2. When an image on the film is obliterated with a round black mark, it is an indication of either blurred copy because of movement during exposure, duplicate copy, or copyrighted materials that should not have been filmed. For blurred pages, a good image of the page can be found in the adjacent frame. If copyrighted materials were deleted, a target note will appear listing the pages in the adjacent frame. 3. When a map, drawing or chart, etc., is part of the material being photographed, a definite method of "sectioning" the material has been followed. It is customary to begin filming at the upper left hand corner of a large sheet and to continue from left to right in equal sections with small overlaps. If necessaiy, sectioning is continued again—beginning below the first row and continuing on until complete.
    [Show full text]
  • The Meaning of Velvet Jennifer Jean Wright Iowa State University
    Iowa State University Capstones, Theses and Retrospective Theses and Dissertations Dissertations 2000 The meaning of velvet Jennifer Jean Wright Iowa State University Follow this and additional works at: https://lib.dr.iastate.edu/rtd Part of the Creative Writing Commons, and the English Language and Literature Commons Recommended Citation Wright, Jennifer Jean, "The meaning of velvet" (2000). Retrospective Theses and Dissertations. 16209. https://lib.dr.iastate.edu/rtd/16209 This Thesis is brought to you for free and open access by the Iowa State University Capstones, Theses and Dissertations at Iowa State University Digital Repository. It has been accepted for inclusion in Retrospective Theses and Dissertations by an authorized administrator of Iowa State University Digital Repository. For more information, please contact [email protected]. The meaning of velvet by Jennifer Jean Wright A thesis submitted to the graduate faculty in partial fulfillment of the requirements for the degree of MASTER OF ARTS Major: English (Creative Writing) Major Professor: Stephen Pett Iowa State University Ames, Iowa 2000 Copyright © Jennifer Jean Wright, 2000. All rights reserved. iii that's the girl that he takes around town. she appears composed, so she is I suppose, who can really tell? she shows no emotion at all stares into space like a dead china doll. --Elliot Smith, waltz #2 The ashtray says you were up all night when you went to bed with your darkest mind your pillow wept and covered your eyes you finally slept while the sun caught fire You've changed. --Wilco, a shot in the arm two headed boy all floating in glass the sun now it's blacker then black I can hear as you tap on your jar I am listening to hear where you are ..
    [Show full text]
  • An Approach to the Interpretation of Wor/D Heritage
    Heritage Iuterpretatton Interuattoaal byfour outstanding mountainous national parks; Fiordland952!, Mount Cook 956!, Westland Te Wahipouniniu - an approach to 960!and Mt Aspiring964! Fig.1!.In 1986, the Interpretationof wor/d heritage Fiordlandand Westland/MountCook National wiiderness Parkswere designated byUNESCO as World HeritageSites. LeslieF. MoB'oy Coordinator,Interpretation Duringthe l970sand 80s, bitter resource New ZealandDepartment af Conservation controversiesraged throughout the South-West, P,O Sox 10-420 particularlythe raising of LakeManapouri for Wellington,New Zealand hydroelectricity,thepossible inining of Red Phone:64 f04! 471 0726 Mountainand thenon-sustainable logging of the FAX: 64 4! 471 3279 lowlandterrace forests of magnificentrimu snd kahikateatrees. In a majorenvironmental re- organisationof government in 1987,a new Departmentof Conservation DoC! was set up to replacethe former Lands, Forests and Wildlife THE SETTING agencies,and, in a landmarkconservation decisionin 1989,the reinaining!owland coastal The south-west of the South IsLandof New forests11,000 ha! of SouthWestland were Zealandis oneof the greatwildernesses of the reservedfroin tiinber production and passedto SouthernHemisphere. It is a landscapeboth DoC administration.This latter decisionpaved forbiddingand beautiful - peakswith glaciers theway for the effective doubling of thesize of descendingto densely-forestedcoasts, or tussock the a.reawith world heritagestatus Hutchingsk grasslandbasins dotted with lakes Potton1987; DoC 1989!.In December1990,
    [Show full text]
  • Itu a Tfo ®Tm ?0
    A Weekly Newspaper Is Close To The People ItUatfo ®tm ?0 r i I* I fs ------------- ----------------------' >11. 4i English Counterpart Visit More Thelts A world traveler, Percy Jo_ nea detoured from a vlalc to ,1 a daughter'In Canada to travel Reported Here to New Jeraey to vlalt the lo­ The Detective Bureau la ln- cal rotary club before return­ veatlgatlng two robberies re- ported here Itet Tn««A»y,------- 8 ing to hi* home In England. He laid he alao haa visited South Irving Schultz of 1573 Maple The Hillside Public Schools Africa twice alnce he retired Ave. told police that hla apart­ will open on Thursday, Sept­ In 1962, ment was entered sometime ember 8th, at the regular time between July 21, and Aug. 12, for all pupils according to an He wai In the Insurance bu­ and $408 worth of Jewelry and announcement made today by siness prior to hla retirement. caah atolen. Dr. Wayne T. Branom, Super­ Aa part of the friendship pro­ Entry may have been made intendent of Schools. ject, member* of the local club through a rear window which All new pupils who will attend are correipondlng with mem­ waa unlocked, police aald. The the Hillside schools for the first bers of the Stoke-On-Trent club of atolen Items were taken from a time, and have not previously r who are In the same occupation. dreater drawer and Included registered, are requested to Jones came to the club aeaslon Club from Jail UbAeCelVe8 * b,u,ner of 1,10 Hillside R ota^ a atrand of pearla, a man’s register at their respective with J.
    [Show full text]