DLP Resources reports 54m of 1.53% copper in a trench on the 100 % owned Esperanza project and confirms Silver-Gold-Arsenic-Antimony anomalies coincident with previously reported Molybdenum and Copper in rock chips / Appoints Joe Phillips to the Board

Cranbrook, British Columbia, (Newsfile Corp. – March 9, 2026) DLP Resources Inc. (“DLP” or the “Company”) (TSXV:DLP) (OTCQB:DLPRF) announces receipt of geochemical results for three (3) of nine (9) trenches in the exotic copper zone and geochemical analysis of gold (Au) and silver (Ag) and a suite of 49 elements in 94 pulps from rock samples taken previously from the Esperanza project immediately south of the Chapi Mine in Southern Peru (Figure 1 and see DLP Resources Inc., news releases dated March 13, 2024 and April 25, 2024).

Results from three of the nine trenches on the exotic copper oxide zone which extends over approximately 300m x 700m have returned copper mineralized intervals of between 48 to 82m with average copper values ranging from 0.29 % Cu to 2.29 % Cu (see Tables 1 to 3 and Figures 2 and 3). Additional analysis of silver (Ag) and gold (Au) plus copper (Cu), Molybdenum (Mo) arsenic (As), antimony (Sb), lead (Pb), bismuth (Bi), barium (Ba) and zinc (Zn) in the re-analysis of pulps of rock samples taken in the initial reconnaissance sampling have returned consistent association of As–Sb–Pb–Bi ± Ba, with anomalous Mo and low Zn, characteristic of proximal phyllic alteration developed above or laterally to a potential mineralized core. This is within mapped intrusive stocks and polymictic breccias within the overlying volcanics (Figures 4 to 14).

The additional geochemical analysis of Au and Ag and the re-interpretation of all geochemical data have confirmed geochemical anomalies over the previously reported magnetic high surrounded by magnetic lows co-incident with mapped porphyry related alteration, high resolution spectral alteration mineral mapping and anomalous copper and molybdenum anomalies (see Figure 14) and DLP Resources Inc., news releases dated January 05, 2026).

Highlights

• Trench T1_026 was 54m long and cut through the mineralized zone on an azimuth of 055 degrees and an inclination of -15 degrees (Table 1). The 54m interval returned 1.53% Copper (see Tables 1 & 2).

  • Trench T2_026 was 48m long and cut through the mineralized zone on an azimuth of 13 degrees and an inclination of -25 degrees. The 48m trench returned an interval of 38m of 0.34 % copper from 10m to 48m (see Tables 3 & 4).

  • Trench T3_026 was 82m long and cut through the mineralized zone on an azimuth of 10 degrees and an inclination of -25 degrees. The 82m interval returned 0.62 % copper (see Tables 5 & 6).

  • Rock geochemistry shows a consistent association of As–Sb–Pb–Bi ± Ba, with anomalous Mo and low Zn, characteristic of proximal phyllic alteration developed above or laterally to a mineralized core.

  • The presence of disseminated tourmaline and the Bi–Mo association supports the interpretation of high-temperature fluids proximal to the intrusive source, with effective vectoring potential toward the center of the porphyry system.

  • Anomalous Au values concentrated along structures, with generally low Ag, but locally up to 82g/t Ag (~2oz) within a discrete structure, indicate late-stage hydrothermal pulses focused along faults, consistent with a potential telescoped porphyry system and without evidence of extensive epithermal development.

  • Low surface Cu values over the central RTP – high magnetic anomaly suggests that the Cu–Mo core is not exposed, with a higher probability of occurrence along the flanks of the RTP magnetic high or at greater depth, particularly in zones where As–Sb decrease and Cu–Mo increase (Figure 14).

  • The elongated reduced to pole (RTP) magnetic high (~3 × 2 km) defines a potential magnetite-bearing intrusive corridor with strong structural control, consistent with a large-scale porphyry system.

Mr. Gendall, President and CEO commented: “Trenching across the exotic copper zone with current mapped exposures of approximately 700m x 300m has returned encouraging intervals of up 82m with very encouraging copper grades of up to 2% copper. These trench results coupled with an elongated magnetic high, proximal phyllic alteration, a well defined As–Sb–Bi–Ba geochemical anomaly over a moderate Mo enrichment, and structurally controlled anomalous Au and Ag defines a well-developed Cu–Mo–Au porphyry system with strong discovery potential through exploration targeting and drilling of these anomalies to depth, along structural flanks and areas of exotic copper showings.

I would also like to welcome Joe Phillips to the DLP Board. Joe brings a wealth of experience to DLP as a senior mining executive and director in North and South America, and we look forward to Joe’s insights and guidance as we progress two important copper-molybdenum projects in Peru”.

Trench and Rock Chip Sampling

Results from three of the nine trenches on the exotic copper oxide zone which extends over approximately 300m x 700m are reported below (see Tables 1,2,3, 4, 5 & 6 and Figures 2 to 14):

Table 1: Trench T1-026 Location

TrenchEastingNorthingElevationLengthAzimuthInclinationIDmmmmDegreesDegreesT1-02624468681363061860.55455-15Table 2: Trench T1-026 Summary Results for Copper**

TrenchFromToIntervalDescriptionCu (total)IDmmm%T1-02605454Mineralized agglomerate1.53Includes62014Mineralized agglomerate1.88Includes425210Mineralized agglomerate2.29Table 3: Trench T2-026 Location

TrenchEastingNorthingElevationLengthAzimuthInclinationIDmmmmDegreesDegreesT2-026244606813624218694813-25Table 4: Trench T2-026 Summary Results for Copper**

TrenchFromToIntervalDescriptionCu (total)IDmmm%T2-02604848Mineralized agglomerate0.29Includes104838Mineralized agglomerate0.34Table 5: Trench T3-026 Location

TrenchEastingNorthingElevationLengthAzimuthInclinationIDmmmmDegreesDegreesT3-02624449981362541884.58210-25Table 6: Trench T2-026 Summary Results for Copper

TrenchFromToIntervalDescriptionCu (total)IDmmm%T3-02608282Mineralized agglomerate0.62Includes548228Mineralized agglomerate1.33Table 7. Summary of Rock Chip Results for the Esperanza Project with gold (Au), copper (Cu), zinc (Zn), silver (Ag) and molybdenum (Mo) highlighted.

Sample NoEastingNorthingElevationAuCuZnAgMo****Sample areaDescription** mmppbppmppmppmppmm**Rock Chip Samples 2x2m Sampling Area 00115224429381366351965<5151.8360.111.372 x 2Diorite with quartz vlts & Mn, intense fractures with neotacite001153244380813681919536422218270.141.92 x2Quartz Diorite, FeOx + Malachite + Mn + Tm?001154244459813684819536041326630.191.042 x2Quartz Diorite, Intense fractures, Malachite + CuOx + Mn + Tm001155244517813688319511114016510.170.972 x2Quartz Diorite, QS alteration, FeOx + Malachite00115624433481366611943<542.5640.161.242 x2Quartz Diorite, Argillic alteration, FeOx vlts00115724436781367021940827.7540.171.32 x2Quartz Diorite, FeOx vlts + calcite00115824440081367391930830990.136.382 x2Quartz Diorite, Arg alteration, Qtz vlts00115924445181367081940721.3590.217.292 x2Quartz Diorite, Arg alteration, Qtz Veinlets + FeOx00116024453081365361929<524.6660.287.52 x2Aplite Dyke, FeOx + Neotocite00116124471981363241959<53847033870.222.122 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn00116224471481363291959<52870022000.182.352 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn0011632447238136311195553296017510.182.442 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn00116424467481363131853<53821017160.191.852 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn0011652443828136816195463068014940.181.822 x2Quartz Diorite, FeOx, CuOx, Malachite + Mn + Tm?0011662443848136818195419193114600.131.142 x2Quartz Diorite, FeOx, CuOx, Malachite + Mn + Tm?00116724438681368201953501111019050.131.82 x2Quartz Diorite, FeOx, CuOx, Malachite + Mn + Tm?00116824438881368221953126573370.120.662 x2Quartz Diorite, FeOx, CuOx, Malachite + Mn + Tm?0011692443908136824195315368529330.151.32 x2Quartz Diorite, FeOx, CuOx, Malachite + Mn + Tm?00117124440981367391930134493028740.272.112 x2Quartz Diorite, Arg Alteration, Qtz Vlts, FeOx, + Vlts Calc0011722447198136324193254558018290.172.322 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn001173244714813632918538981724930.491.842 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn00117424472381363111853171461011390.21.672 x2Polymictic Bx, Qtz + Tm + Ox Cu + Mn00117524810981321641675<5182800.271.392 x2Qtz Tm Breccia with Cp, CuOx, FerriMo, Int Frac00117624928881333801930<540.8320.080.842 x2Diorite? With Volc frag.,00117724428381367511913678.8690.111.292 x2Qtz Monzonite with Bi + Chl + FeOx vlts, Neo + Tm00117824431981367901917740.1690.1612 x2Qtz Monzonite, Arg Alteration, FeOx vlts, Neo + Tm00117924421681367771922828.2740.261.182 x2Qtz Monzonite,Qtz vlts-calcite-ep-mag001180244169813674919316191250.680.622 x2Qtz Monzonite +Tm-Qtz-bi, Neo00118124417081367511942<531.3660.271.492 x2And Dyke, Intense Frac.,Vlts of FeOx00118224400981367431955<537.2670.60.972 x2Qtz Monzonite with Arg alt, Intense Frac-vlts-FeOx00118324405681368051987<523.2620.140.822 x2Qtz Monzonite with Vlts of Mn, Calcite, Tm-Mag zones001184249618813577119571026710.220.752 x2Qtz Dirorite, Arg Alt, Vlts of FeOx, green sericite00118524964081357551957671.61380.590.882 x2Qtz-Tm dyke?00118624319581356441940<529.8830.191.152 x2Qtz Diorite with Chl-py-ep + Mn00118724291781354271935636.8410.233.022 x2Diorite with FeOx + Discontinuous vlts001188241824813445619176653.5650.2114.762 x2Breccia, FeOx, Lim boxworks001189241913813461519222148.6220.327.612 x2Polymictic Bx, FeOx in fractures001191242573813544719301255.9700.2210.732 x2Quartz vein, Strong Fracturing with FeOx + Mn00119224325881346311926894.71030.257.62 x2Andesite fragment, FeOX, Intense Fracturing00119324328281346461929526.8300.112.752 x2Quartz Diorite, QS Alteration, Very Fractured00119424312581347451929734440.133.332 x2Quartz Diorite, FeOx, Turgite,00119524334181347971925<528.3740.443.632 x2Quartz Diorite, FeOx, Turgite, Intense Fractures00119624347281344711924621.2390.2514.422 x2Quartz Diorite, Quartz Vlts, FeOx boxworks, Intense Frac.00119724326681341641917732.4900.254.112 x2Diorite with Qtz Vlts, Leached – FeOx + Qtz Tm vlts001199246227813000319212830.2411.586.162 x2Diorite with Vlts of Qyz-py-mn = Sulphates + Int Frac.00120024347881343341718694630.314.142 x2Diorite with fragments of SS + Vlts of Qtz-hm,Mn,NeoNotes: Bx-Breccia, Qtz-Quartz, Tm-Tourmaline, Vlts-veinlets, FeOx-Iron Oxides, FeMo-ferrimolybdenite, Mt-magnetite, SS-sandstone, Py-Pyrite, Ep-Epidote, Chl-Chlorite, Arg-Argillic, QSP-Quartz-sericite-pyrite, Ser-Sericite, Sil-Silicified, SS-sandstone, Py-Pyrite, Ep-Epidote, Chl-Chlorite, Arg-Argillic, QSP-Quartz-sericite-pyrite, Ser-Sericite, Sil-Silicified,

Sample NoEastingNorthingElevationAuCuZnAgMo****Sample areaDescription** mmppbppmppmppmppmmRock Chip Samples 2x2m Sampling Area00120124318581345761711<532.7340.1715.52 x2Qtz-Tourmaline breccia00120224308581345751721638.5630.0721.622 x2Intensely fractured diorite with FeOx boxworks001204243094813458517101164.2840.1337.962 x2Diorite with SS clasts and Fe-oxides + Tourmaline00120524310281345841721<536.9570.0819.12 x2Sandstone with Fe-oxides + Quartz-sericite001206243107813457017121452.4170.2334.582 x2Diorite, Arg Alt, with Vlts of FeOx = Int Frac0012072431518134507171427211.61010.139.042 x2Diorite + Veining with FeOx + Mn + Neo + Tm0012092431418134293171637282.21260.1112.062 x2Diorite, Arg with SS and Qtz vlts and FeOx boxworks +Tm001210243330813445417298328.7440.1139.912 x2Diorite, Arg with SS and Qtz vlts and FeOx boxworks +Tm00121124284481346761728436231.31400.11362 x2Diorite, Arg altered, qtz-FeOx + Tm + fine alunite? in matrix.00121224280281347571721727.9510.256.672 x2Diorite Sil, Qtz vlts, Mn-Tm, intense angular fractures.0012142427548134817172911106.4240.1119.452 x2Diorite, Arg Alteration, Vlts of Qz, FeOx, Mn +Tm00121524271881348461728873.1330.0821.72 x2Polymictic Bx frag of SS with FeOx veins + Mn001216242911813483317162083.3220.094.742 x2Polymictic Bx, fragments of SS, vlts of FeOx, Mn + Neo00121724286581349181718794.1220.067.762 x2Diorite QSP with Qtz vlts and FeOx-Mn00121924287281349711711<53.660.040.172 x2Diorite, QS alt, vlts of Qtz + FeOx +Mn + Neo00122024275681350471674641690.315.422 x2Diorite, QS alt, vlts of Qtz + FeOx +Mn + Neo = Int Fac00122124267381350041691<523.4330.175.92 x2Diorite, Arg alt, vlts of Qtz + FeOx +Mn + Tm001222242872813497116851149.11070.271.642 x2Diorite, Qtz-Tm, Int Frac, vlts of FeOx-Mn + Neo001224242756813504716804716.8140.313.532 x2Polymictic bX with Sil fragments with BxWks + vlts of FeOx-Mn, Int Frac001225242673813500416791119.8190.081.582 x2Diorite, arg alt, Vlts of FeOx, +Mn + Tm00122624450481363211886<51905010990.191.972×2Polymictic Bx, pseudostratification + malachite and Mn0012272446828136164185281778023950.366.483 x5Polymictic Bx, pseudostratified with presence of malachite00122924481781361811852163941013890.4916.942 x2Polymictic Bx?, with malachite and Mn in matrix00123024460981362241887<543633500.236.063 x3Polymictic Bx?, with malachite and Mn in matrix0012312445578136198158951441011190.133.335 x5Polymictic Bx?, with malachite and Mn in matrix001232244500813615218841465034600.164.335 x 5Subhorizontal polymictic Bx with malachite and Mn in matrix00123424449481361081876<539865510.145.135 x 3Polymictic Bx with malachite and Mn in subhorizontal horizons00123524451881360331878940785100.195.535 x 5Polymictic Bx with malachite and Mn in subhorizontal horizons001236244564813608018539761212470.269.113 x 10Polymictic Bx with malachite and Mn in subhorizontal horizons0012372445878135958185627158407640.347.55 x 5Polymictic Bx with malachite, atacamite and Mn00123924451381358801863923863920.235.46 x 3Polymictic Bx with malachite in a subhorizontal horizon00124024451081357921861<576014200.194.665 x 5Polymictic Bx with malachite in a subhorizontal horizon00124124456881356791852<536715150.26.75 x 5Polymictic Bx with malachite in a subhorizontal horizon00124224401081353531789<5111720910.213.865 x 3Polymictic Bx with malachite in a subhorizontal horizon0012442440658135443179222307514530.25.325 x 3Polymictic Bx with malachite in a subhorizontal horizon00124524271881344031674585.6340.115.155 x 2Diorite, Arg., with Mn in irregular veins0012462429858134540169111150.22400.0850.85 x 5Diorite, Arg., with Mn in irregular veins00124724283081343641667823.3610.0923.182 x 2Diorite, Qtz, Tm, FeOx in boxworks + intense fracturing + veins00124924267481342001645751.7490.26.282 x 2Quartzite/SS with FeOx in veinlets/fractures and presence of Tm00125024264081341581637733.8120.2618.185 x 3Quartzite/SS with FeOx in veinlets/fractures and presence of Ser001751242562813409316286105.6440.3325.795 x 2Bx of quartzite/SS with FeOx boxworks + FeOx in fractures001752242082813462716261435.6810.1713.763 x 3Diorite, Arg, FeOx + quartzite/SS with FeOx boxworks00175424225481344341645370161.5728267.155 x 2Vein?, QSP, malachite and OxFe in fractures and boxworks00175524229181342491634729.770.2514.763 x 2Bx, QSP +FeOx boxworks +quartz00175624227681342441643622.7250.135.623 x 2Bx, QSP, presence of FeOx boxworks + quartz00175724224881342201651816.91360.1411.673 x 3Bx, subangular fragments, Qtz-Tm?0017592423518134070160710031.3280.6611.463 x 3Diorite, QSP, FeMo in fractures, FeOx +intense fracturing001760242265813416816442547.51140.5415.335 x 3Bx, quartz veins with FeOx, Mn and Tm in fracturesNotes: Bx-Breccia, Qtz-Quartz, Tm-Tourmaline, Vlts-veinlets, FeOx-Iron Oxides, FeMo-ferrimolybdenite, Mt-magnetite, SS-sandstone, Py-Pyrite, Ep-Epidote, Chl-Chlorite, Arg-Argillic, QSP-Quartz-sericite-pyrite, Ser-Sericite, Sil-Silicified, SS-sandstone, Py-Pyrite, Ep-Epidote, Chl-Chlorite, Arg-Argillic, QSP-Quartz-sericite-pyrite, Ser-Sericite, Sil-Silicified,

Board Appointment and Issuing of Options

Mr. Joe Phillips, who served as a Technical Advisor to DLP from December 2025 is appointed to the Board. Mr. Phillips has a wealth of experience as a senior mining executive and director in North and South America. His experience ranges from startup and development to operational roles at a senior level. He has acted as technical adviser on various operations, most recently the World Copper project in Arizona, and has been COO at a number of operations including Minera Tres Valles, Chile, and Laguna Gold. He has been in senior management roles with Coeur Mining, Silver Standard and Pan American Silver.

The Company has granted 200,000 incentive stock options to Mr. Phillips with an exercise price of $0.36 per share for a five-year period, from the date of grant, in accordance with the terms of DLP Resources Inc. stock option plan. Further, the Company has granted an at arm’s length consultant 100,000 incentive stock options with an exercise price of $0.36 per share for a five-year period, from the date of grant, in accordance with the terms of DLP Resources Inc. stock option plan.

Quality Control and Quality Assurance

DLP Resources Peru S.A.C, a subsidiary of DLP Resources Inc., supervises sampling and carries out surface sampling and mapping of outcrop at the Esperanza project. Rock chip-Panel sampling was done within a maximum area of 2m x 1m and descriptions were carried out by a geologist. Samples are bagged and sealed on site before transportation to the SGS Peru S.A.C. sample preparation facility in Arequipa by Company vehicles and staff. Rocks are crushed Drying at 100°C, primary and secondary crushing to -10 mesh (up to 6K) Division and pulverizing of 250g (95% to 140 mesh) with 70% passing <2mm. Sample is split with riffle splitter and 250g pulverized to 85% less than 75um. Prepared samples are sent to Lima by SGS Peru S.A.C. for analysis. SGS Peru S.A.C. is an independent laboratory. Samples are analyzed for 50 elements using a four-acid digestion and Atomic absorption spectroscopy finish. Overlimit samples for copper and silver were re-analysed by four-acid digestion and atomic absorption spectrometry finish). For gold determination, fire assay of a 30 g charge is followed by an atomic absorption spectroscopy (AAS) determination. In addition, sequential copper analyses are done and reports, soluble copper using sulphuric acid leach, soluble copper in cyanide leach, residual copper and total copper. SGS meets all requirements of International Standards with ISO/IEC 17025 accredited testing laboratories.

DLP Resources independently monitors quality control and quality assurance (“QA/QC”) through a program that includes the insertion of certified reference materials.

Esperanza Project

The Esperanza Cu-Mo Project is an early-stage exploration project in Southern Peru consisting of 13,900 Ha of claims which are 100% owned by DLP. Esperanza is located ~35 km SW of the Cerro Verde Mine in Arequipa and immediately south of the Chapi Copper Mine.

Copper-molybdenum mineralization was initially observed in an early reconnaissance program undertaken in 2022. Subsequently we have completed a satellite alteration mapping program over the project and identified alteration consistent with porphyry copper-molybdenum systems. Follow-up of alteration and subsequent sampling and mapping commenced in early 2024.

Figure 1: Esperanza Project Location

Figure 2: Esperanza Trench Locations

Figure 3. Summary of rock chip-panel sample results from the three trenches for the Esperanza Porphyry Project.

Figure 4: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous copper (Cu) in rock samples.

Figure 5: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous molybdenum (Mo) in rock samples.

Figure 6: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous gold (Au) in rock samples.

Figure 7: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous silver (Ag) in rock samples.

Figure 8: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous arsenic (As) in rock samples.

Figure 9: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous antimony (Sb)in rock samples.

Figure 10: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous bismuth (Bi) in rock samples.

Figure 11: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous barium (Ba) in rock samples.

Figure 12: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous lead (Pb) in rock samples.

Figure 13: Esperanza Project – Reduced to pole magnetic map and geology map with anomalous zinc (Zn) in rock samples.

Figure 14: Esperanza Project – Rock chip anomalies of arsenic (As), gold (Au), barium (Ba), antimony (Sb), copper (Cu), molybdenum and alteration anomaly of limonite and sericite on magnetic signature – reduced to pole (RTP) data.

Qualified Person

Mr. Gendall, CEO & President of the company is the qualified person as defined by National Instrument 43-101. Mr. Gendall has reviewed and approved the technical contents of this news release

About DLP Resources Inc.

DLP Resources Inc. is a mineral exploration company operating in Southeastern British Columbia and Peru, exploring for Base Metals and Cobalt. DLP is listed on the TSX-V, trading symbol DLP and on the OTCQB, trading symbol DLPRF. Please refer to our web site www.dlpresourcesinc.com for additional information.

FOR FURTHER INFORMATION PLEASE CONTACT:

**For further information please contact:

**DLP RESOURCES INC.

**Ian Gendall, President and Chief Executive Officer

**Bill Bennett, Chairman

**Jim Stypula, Lead Director

**Robin Sudo, Corporate Secretary and Land Manager

Email: iangendall@dlpresourcesinc.com

Email: billbennett@dlpresourcesinc.com

Email: jimstypula@dlpresourcesinc.com

Email: robinsudo@dlpresourcesinc.com

Neither the TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.

Cautionary Note Regarding Forward-Looking Information

This release includes certain statements and information that may constitute forward-looking information within the meaning of applicable Canadian securities laws. Forward-looking statements relate to future events or future performance and reflect the expectations or beliefs of management of the Company regarding future events. Generally, forward-looking statements and information can be identified by the use of forward-looking terminology such as “intends” or “anticipates”, or variations of such words and phrases or statements that certain actions, events or results “may”, “could”, “should”, “would” or “occur”. This information and these statements, referred to herein as “forward‐looking statements”, are not historical facts, are made as of the date of this news release and include without limitation, statements regarding discussions of future plans, estimates and forecasts and statements as to management’s expectations and intentions with respect to further sampling, mapping and advancement of the Esperanza Project in Peru.

These forward‐looking statements involve numerous risks and uncertainties and actual results might differ materially from results suggested in any forward-looking statements. These risks and uncertainties include, among other things rock chip results expected from the Esperanza Project in Peru.

Although management of the Company has attempted to identify important factors that could cause actual results to differ materially from those contained in forward-looking statements or forward-looking information, there may be other factors that cause results not to be as anticipated, estimated or intended. There can be no assurance that such statements will prove to be accurate, as actual results and future events could differ materially from those anticipated in such statements. Accordingly, readers should not place undue reliance on forward-looking statements and forward-looking information. Readers are cautioned that reliance on such information may not be appropriate for other purposes. The Company does not undertake to update any forward-looking statement, forward-looking information or financial out-look that are incorporated by reference herein, except in accordance with applicable securities laws. We seek safe harbor.