News Article | April 24, 2017
GOETTINGEN, Germany--(BUSINESS WIRE)--Sartorius (FWB:SRT), a leading international partner of the biopharmaceutical industry and research laboratories, increased its sales revenue and earnings in the first quarter of 2017 by double digits. "Both divisions successfully started off the current year. Lab Products & Services achieved considerable organic growth, and with the acquisition of Essen BioScience, it added another innovative product family to its bioanalytics portfolio and further growth potential,” said CEO and Executive Board Chairman Dr. Joachim Kreuzburg. The substantially above-average market growth for Bioprocess Solutions over the past two years has returned to normal rates, as expected. "In particular, business development in the Americas region was somewhat more moderate in the first quarter; however, we expect demand to pick up over the year," emphasized Kreuzburg. Management confirms its guidance raised at the beginning of April due to consolidation of its acquisitions: sales for the full year are projected to grow by about 12% to 16% and the company's earnings margin1 is forecasted to increase by slightly more than 0.5 percentage points. In the first three months of 2017, Sartorius increased its sales revenue in constant currencies by 12.2% (reported +13.6%) from 301.9 million euros in the year-earlier period to 343.1 million euros. The Asia|Pacific region recorded the strongest growth, with sales up 33.3% to 80.0 million euros. Both Group divisions contributed double-digit gains to this development. In the EMEA2 region, Sartorius generated sales of 151.2 million euros, 8.9% more than in the comparable year-earlier period. First-quarter sales revenue for the Americas region was 111.9 million euros, up 4.9% from a year ago. (All regional figures in constant currencies) Earnings in the reporting period rose overproportionately again relative to sales. Sartorius thus increased its underlying EBITDA by 17.0% to 84.6 million euros, and its respective margin from 24.0% to 24.7%. Relevant net profit3 for the Group grew by 17.7% from 29.3 million euros to 34.4 million euros. Earnings per ordinary share totaled 0.50 euros (Q1 2016: 0.42 euros4) and earnings per preference share 0.51 euros (Q1 2016: 0.43 euros4). The Group's key financial indicators remained at very robust levels following its most recent acquisition of Essen BioScience. At the end of the reporting period, the ratio of net debt to underlying EBITDA stood at 2.4 and company's equity ratio was 34.2% (Dec. 31, 2016: 1.5 and 42.0%, resp.). At 12.8%, the capex ratio in the first quarter was within the range expected. The Bioprocess Solutions Division, which offers a broad range of innovative technologies for the manufacture of biopharmaceuticals, recorded first-quarter sales growth of 9.4% in constant currencies to 251.1 million euros. Following two years of strong above-average dynamics, market growth in this segment returned to normal rates, as expected. In particular, the development in the Americas region was influenced at the beginning of the year by softer customer demand as well as by temporarily limited delivery capacities for cell culture media. The division increased its underlying EBITDA overproportionately again with respect to sales, by 12.1% to 68.4 million euros; its margin reached 27.2% relative to 26.9% in the comparable year-earlier period. The acquisition of the software company Umetrics closed at the beginning of April 2017 did not have any effect in the first quarter. The Lab Products & Services Division, which offers technologies for laboratories, primarily for the pharma sector and public research, significantly increased sales revenue in the first three months of the current year by 21.0% to 92.0 million euros (reported +22.7%). Based on strong demand in all regions and for all product segments, the division reported organic growth of around 10%. Altogether, around 11 percentage points of the division’s growth were contributed by portfolio expansion in the area of bioanalytics due to the acquisitions of IntelliCyt and ViroCyt in mid-2016, as well as Essen BioScience at the end of March 2017. Driven by economies of scale related to strong organic growth and acquisitions, the division's underlying EBITDA rose sharply by 43.1% to 16.3 million euros; its respective earnings margin improved from 15.2% to 17.7%. The Sartorius Group confirms its guidance for the current year, which it raised on April 3, 2017, due to its most recent acquisitions of Essen BioScience and Umetrics. Management thus projects that Group sales revenue for the full year will grow by about 12% to 16% and underlying EBITDA margin will increase slightly more than by half a percentage point over the prior-year figure of 25.0%. Regarding the two divisions, management anticipates that sales for Bioprocess Solutions will grow by about 9% to 13% and that the division's underlying EBITDA margin will rise by around half a percentage point (prior-year figure: 28.0%). For the Lab Products & Services Division, Group management projects that, assuming an overall stable economic environment, sales will increase by about 20% to 24% and the division's underlying EBITDA margin will rise by nearly two percentage points compared with the prior-year figure of 16.0%. (All forecasts are based on constant currencies) The capex ratio for the current fiscal year is projected to remain at around 12% to 15%. The ratio of net debt to underlying EBITDA at year-end is expected to remain about at the current level of 2.4 (Dec. 31, 2016: 1.5) as a result of the company's most recent acquisitions. Any further acquisitions have not been considered in these projections. 1 Sartorius uses underlying EBITDA (earnings before interest, taxes, depreciation and amortization; adjusted for extraordinary items) as the key profitability indicator 2 EMEA = Europe | Middle East | Africa 3 After non-controlling interest, adjusted for extraordinary items and non-cash amortization, as well as based on the normalized financial result and corresponding tax effects. 4 Adjusted for stock split; rounded values This press release contains statements about the future development of the Sartorius Group. The content of these statements cannot be guaranteed as they are based on assumptions and estimates that harbor certain risks and uncertainties. This is a translation of the original German-language press release. Sartorius shall not assume any liability for the correctness of this translation. The original German press release is the legally binding version. Furthermore, Sartorius reserves the right not to be responsible for the topicality, correctness, completeness or quality of the information provided. Liability claims regarding damage caused by the use of any information provided, including any kind of information which is incomplete or incorrect, will therefore be rejected. Sartorius products used in the manufacture of medications www.sartorius.com/mediafile/corp/Sartorius_0232_PG9_01_RGB.jpg Dr. Joachim Kreuzburg, CEO and Executive Board Chairman of Sartorius, will discuss the company's results with analysts and investors on Monday, April 24, 2017, at 3:30 p.m. Central European Time (CET) in a teleconference. You may register by clicking on the following link: http://services.choruscall.de/DiamondPassRegistration/register?confirmationNumber=2173934&linkSecurityString=8938b98a Alternatively, you can dial into the teleconference, without registering, at: +49 (0) 69 566 03 6000 July 25, 2017 Publication of the first-half figures (January to June 2017) The Sartorius Group is a leading international pharmaceutical and laboratory equipment provider with two divisions: Bioprocess Solutions and Lab Products & Services. Bioprocess Solutions with its broad product portfolio focusing on single-use solutions helps customers produce biotech medications and vaccines safely and efficiently. Lab Products & Services, with its premium laboratory instruments, consumables and services, concentrates on serving the needs of laboratories performing research and quality assurance at pharma and biopharma companies and on those of academic research institutes. Founded in 1870, the company earned sales revenue of more than 1.3 billion euros in 2016. More than 6,900 people work at the Group's 50 manufacturing and sales sites, serving customers around the globe. Key Performance Indicators for the first quarter of 2017
News Article | March 3, 2017
Sartorius wird Essen BioScience für 320 Mio. US$ in bar erwerben. Das Unternehmen beschäftigt aktuell etwa 150 Mitarbeiter und wird im laufenden Jahr voraussichtlich einen Umsatz von rund 60 Mio. US$ bei einer deutlich zweistelligen operativen EBITDA-Marge erzielen. Essen BioScience hat seinen Hauptsitz in Ann Arbor, Michigan, USA, sowie Vertriebsgesellschaften in Großbritannien und Japan. Leistungsfähigere Verfahren für die Analyse von Zellen gelten als eine wichtige Voraussetzung für weiteren medizinischen Fortschritt z.B. in der Immunonkologie und der Antikörper-und Stammzellforschung. Essen BioScience bietet hierfür eine Plattform von Instrumenten, Software und Reagenzien, die mittels hochauflösender Bilder biologische Prozesse in Echtzeit visualisiert und vollautomatisch analysiert. Mithilfe der gewonnenen Daten lassen sich neue Erkenntnisse über Wirkmechanismen in kranken und gesunden Zellen erzielen, die dazu beitragen, die oft sehr zeitintensive Entwicklung neuer Wirkstoffe deutlich zu beschleunigen. „Wir freuen uns sehr darauf, Teil des Sartorius-Teams zu werden, und gemeinsam mit IntelliCyt als Bioanalytik-Kompetenzzentrum eine führende Position in der Zellanalytik aufzubauen. Schon heute sind wir mit unseren Systemen breit in den Forschungslaboren der Pharmaindustrie vertreten und haben damit eine hervorragende Basis, gemeinsam weitere Innovationen zu entwickeln und zu etablieren“, so Brett Williams, Präsident und CEO von Essen BioScience. „Der Zusammenschluss mit Sartorius bietet außergewöhnlich gute und nachhaltige Wachstumsmöglichkeiten und damit sehr positive Perspektiven für Mitarbeiter und Geschäftspartner.“
Simvastatin treatment inhibits hypoxia inducible factor 1-alpha-(HIF-1alpha)-prolyl-4-hydroxylase 3 (PHD-3) and increases angiogenesis after myocardial infarction in streptozotocin-induced diabetic rat
Thirunavukkarasu M.,University of Connecticut Health Center |
Selvaraju V.,University of Connecticut Health Center |
Dunna N.R.,University of Connecticut Health Center |
Foye J.L.C.,Essen BioScience |
And 3 more authors.
International Journal of Cardiology | Year: 2013
Background Statins (HMG-CoA reductase inhibitors), are known to improve cardiac function in diabetes-induced cardiovascular disease. We investigated the mechanism by which statins ameliorate cardiac function after myocardial infarction (MI). Simvastatin (S) increased tube formation and migration of HUVEC in vitro. We examined the role of simvastatin on cardiac function in streptozotocin (STZ) induced diabetic rats subjected to MI. Methods Rats were randomly assigned to 1) Control (non-diabetic) Sham (CS); 2) Control (non-diabetic) MI (CMI); 3) Control Statin treated Sham (CSS); 4) Control Statin treated MI (CSMI); 5) Diabetic Sham (DS); 6) Diabetic MI (DMI); 7) Diabetic Statin treated Sham (DSS); 8) Diabetic Statin treated MI (DSMI). Two weeks after STZ/saline injection Simvastatin (1 mg/kg.b.wt) was gavaged for 15 days (d). MI was induced 30 d after treatment by permanent LAD ligation. Results The S treated MI groups exhibited increased arteriolar density (23 ± 0.6 vs. 14.8 ± 0.4 counts/mm2, DSMI vs. DMI) and reduced fibrosis at 30 d post-MI. VEGF measurement by ELISA after 4 d post-MI showed increased expression in DSMI group compared to DMI group. Western blot analysis showed decreased Prolyl-4-Hydroxylase 3 (PHD-3) in DSMI group as compared to DMI group. Echocardiographic analysis 4 weeks after post-MI showed significant improvement in ejection fraction (50.11 ± 1.83 vs. 32.46 ± 2.19%; DSMI vs. DMI) and fractional shortening (26.77 ± 1.12 vs.16.36 ± 1.22%; DSMI vs. DMI) in both statin-treated MI groups regardless of diabetic status. Conclusion These results suggest that statin therapy mitigates impairment of angiogenesis and myocardial dysfunction following MI in the diabetic rat through PHD3 inhibition. © 2013 Elsevier Ireland Ltd. All rights reserved.
Strese S.,Uppsala University Hospital |
Wickstrom M.,Uppsala University Hospital |
Fuchs P.F.,Uppsala University |
Fryknas M.,Uppsala University Hospital |
And 5 more authors.
Biochemical Pharmacology | Year: 2013
Aminopeptidase N (APN) has been reported to have a functional role in tumor angiogenesis and repeatedly reported to be over-expressed in human tumors. The melphalan-derived prodrug melphalan-flufenamide (melflufen, previously designated J1) can be activated by APN. This suggests that this alkylating prodrug may exert anti-angiogenic properties, which will possibly contribute to the anti-tumoral activity in vivo. This work presents a series of experiments designed to investigate this effect of melflufen. In a cytotoxicity assay we show that bovine endothelial cells were more than 200 times more sensitive to melflufen than to melphalan, in HUVEC cells the difference was more than 30-fold and accompanied by aminopetidase-mediated accumulation of intracellular melphalan. In the chicken embryo chorioallantoic membrane (CAM) assay it is indicated that both melflufen and melphalan inhibit vessel ingrowth. Two commercially available assays with human endothelial cells co-cultured with fibroblasts (TCS Cellworks AngioKit, and Essen GFP-AngioKit) also illustrate the superior anti-angiogenic effect of melflufen compared to melphalan. Finally, in a commercially available in vivo assay in mice (Cultrex DIVAA angio-reactor assay) melflufen displayed an anti-angiogenic effect, comparable to bevacizumab. In conclusion, this study demonstrates through all methods used, that melphalan-flufenamide besides being an alkylating agent also reveals anti-angiogenic effects in different preclinical models in vitro and in vivo. © 2013 Elsevier Inc. All rights reserved.
News Article | March 3, 2017
GOETTINGEN, Germany--(BUSINESS WIRE)--Sartorius (FWB:SRT), a leading partner to the biopharmaceutical industry and laboratories, today signed an agreement to acquire U.S. based Essen BioScience Inc., a pioneer and leader in the field of cell-based assays and instrumentation used for drug discovery and basic research applications, from SFW Capital Partners, a specialized private equity firm that invests in mid-sized businesses providing analytical tools and related services. The transaction, which is subject to antitrust clearance, is expected to close by the end of the first quarter 2017. Sartorius will purchase Essen BioScience for $320 million in cash. Having achieved strong double-digit growth during the past few years, Essen expects to generate sales revenues of approximately $60 million in 2017 with continued strong levels of operating profitability. Headquartered in Ann Arbor, Michigan, USA, and with sales entities in the UK and Japan, the company currently employs approximately 150 people. Through this acquisition, Sartorius will significantly expand its portfolio for bioanalytics, a field the company has recently entered via the IntelliCyt acquisition in 2016. “With the Essen real-time, live-cell analysis platform, we will add another key technology for advancing and accelerating drug discovery applications to our lab divisions’ portfolio”, said Joachim Kreuzburg, CEO of Sartorius. “This powerful technology offers important synergies with our IntelliCyt business. Going forward, Sartorius will be able to provide our customers the broadest and, we believe, the most innovative portfolio for cell analysis in the industry.” Novel analytical methods are crucial to enable scientific progress in the rapidly advancing areas of immuno-oncology, antibody discovery and stem cell research. Essen BioScience has specialized in instrumentation, software and reagents for real-time live-cell imaging and data analysis for more than a decade. The information delivered to users accelerates discovery and development of new drugs and provides new insight and understanding into the mechanisms of disease. Welcoming the transaction, Brett Williams, the President and CEO of Essen, said, “We are excited to become part of Sartorius as a ‘Center of Excellence’ and build an industry- leading cell analytics portfolio together with the IntelliCyt business. This is not only a great opportunity to build upon Essen’s market-leading position, but also to continue development and introduction of transformative solutions for life sciences. In addition, we believe that the combination with Sartorius will provide exceptional opportunities for sustained growth and development for our employees, customers and business partners.” Sartorius will update its 2017 financial guidance for the lab division and therefore also for the Sartorius Group post closure of the transaction. This press release contains statements about the future development of the Sartorius Group. The content of these statements cannot be guaranteed as they are based on assumptions and estimates that harbor certain risks and uncertainties. The Sartorius Group is a leading international pharmaceutical and laboratory equipment provider with two divisions: Bioprocess Solutions and Lab Products & Services. Bioprocess Solutions with its broad product portfolio focusing on single-use solutions helps customers produce biotech medications and vaccines safely and efficiently. Lab Products & Services, with its premium laboratory instruments, consumables and services, concentrates on serving the needs of laboratories performing research and quality assurance at pharma and biopharma companies and on those of academic research institutes. Founded in 1870, the company earned sales revenue of more than 1.3 billion euros in 2016. Around 7,000 people work for the Group, which has its own manufacturing and sales sites in around 110 countries. Founded in Ann Arbor, Michigan in 1996, Essen BioScience develops and manufactures instruments, software, reagents and consumables which enable researchers to remotely image and quantitate a wide variety of cellular processes over time. The IncuCyte® System, is a real-time quantitative live-cell analysis platform that enables visualization and quantification of cell behavior over time by automatically gathering and analyzing images around the clock within a standard laboratory incubator. The system allows researchers to make time-lapsed fully kinetic measurements from living cells over days and weeks thus providing insight into active biological processes in real time.
Pier D.M.,University of Leicester |
Pier D.M.,University of Edinburgh |
Shehatou G.S.G.,University of Leicester |
Shehatou G.S.G.,Mansoura University |
And 7 more authors.
Molecular Pharmacology | Year: 2014
Both human ether-à-go-go-related gene (hERG1) and the closely related human ether-à-go-go (hEAG1) channel are aberrantly expressed in a large proportion of human cancers. In the present study, we demonstrate that transfection of hERG1 into mouse fibroblasts is sufficient to induce many features characteristic of malignant transformation. An important finding of this work is that this transformation could be reversed by chronic incubation (for 2-3 weeks) with the hERG channel blocker dofetilide (100 nM), whereas more acute applications (for 1-2 days) were ineffective. The hERG1 expression resulted in a profound loss of cell contact inhibition, multiple layers of overgrowing cells, and high saturation densities. Cells also changed from fibroblast-like to a more spindle-shaped morphology, which was associated with a smaller cell size, a dramatic increase in cell polarization, a reduction in the number of actin stress fibers, and less punctate labeling of focal adhesions. Analysis of single-cell migration and scratch-wound closure clearly demonstrated that hERG1-expressing cells migrated more rapidly than vector-transfected control cells. In contrast to previous studies on hEAG1, there were no increases in rates of proliferation, or loss of growth factor dependency; however, hERG1-expressing cells were capable of substrate-independent growth. Allogeneic transplantation of hERG1-expressing cells into nude mice resulted in an increased incidence of tumors. In contrast to hEAG1, the mechanism of cellular transformation is dependent on ion conduction. Trafficking-deficient and conduction-deficient hERG1 mutants also prevented cellular transformation. These results provide evidence that hERG1 expression is sufficient to induce cellular transformation by a mechanism distinct from hEAG1. The most important conclusion of this study is that selective hERG1 channel blockers have therapeutic potential in the treatment of hERG1-expressing cancers. Copyright © 2014 by The American Society for Pharmacology and Experimental Therapeutics.
Wolfe A.,Essen BioScience |
O'Clair B.,Essen BioScience |
Groppi V.E.,Essen BioScience |
McEwen D.P.,Essen BioScience
Journal of Biomolecular Screening | Year: 2013
Angiogenesis, the formation of new vessels from preexisting vessels, involves multiple cell types acting in concert to cause endothelial cell proliferation, migration, and differentiation into microvascular arrays. Under pathologic conditions, microenvironment changes result in altered blood vessel production. Historically, in vitro angiogenesis assays study individual aspects of the process and tend to be variable, difficult to quantify, and limited in clinical relevance. Here, we describe a kinetic, quantitative, co-culture angiogenesis model and demonstrate its relevance to in vivo pharmacology. Similar to in vivo angiogenesis, a co-culture of human umbilical vein endothelial cells with normal human dermal fibroblasts remains sensitive to multiple cytokines, resulting in a concentration-dependent stimulation of tube formation over time. Treatment with axitinib, a selective vascular endothelial growth factor (VEGF) antagonist, inhibited VEGF-mediated tube length and branch point formation and was selective for inhibiting VEGF over basic fibroblast growth factor (bFGF), similar to previous studies. Conversely, an FGFR-1 selective compound, PD-161570, was more potent at inhibiting bFGF-mediated angiogenesis. These results demonstrate the cytokine dynamics, selective pharmacology, and translational application of this model system. Finally, combining quantitative angiogenic biology with kinetic, live-content imaging highlights the importance of using validated in vitro models in drug discovery research. © 2013 Society for Laboratory Automation and Screening.
Essen BioScience | Date: 2012-06-08
Apparatus and methods to improve the Boyden chamber used in cellular biological measurements, allowing quantitative optical microscopy of biological cells in situ without using fluorescent probes or optical staining. A thin, porous membrane separating top and bottom reservoirs includes an array of precisely positioned micropores pores manufactured using a laser-based photo-machining (ablation) process. The membrane may be composed of polyethylene terephthalate (PET), polycarbonate, polyimide, polyether ether ketone (PEEK), polystyrene, or other appropriate material. The pores formed in the membrane may have diameters in the range of 1 to 15 microns and spaced apart at a distance ranging from 10 to 500 microns. A plurality of upper and lower reservoirs may be provided to form a multi-well plate. Potential biological applications where Boyden chamber geometries are currently used include co-culture studies, tissue remodeling studies, cell polarity determinations, endocrine signaling, cell transport, cell permeability, cell invasion and chemotaxis assays.
PubMed | Center for Therapeutics Discovery, Clinical science Research Laboratory and Essen BioScience
Type: Journal Article | Journal: Journal of biomolecular screening | Year: 2015
Kir7.1 is an inwardly rectifying potassium channel that has been implicated in controlling the resting membrane potential of the myometrium. Abnormal uterine activity in pregnancy plays an important role in postpartum hemorrhage, and novel therapies for this condition may lie in manipulation of membrane potential. This work presents an assay development and screening strategy for identifying novel inhibitors of Kir7.1. A cell-based automated patch-clamp electrophysiology assay was developed using the IonWorks Quattro (Molecular Devices, Sunnyvale, CA) system, and the iterative optimization is described. In total, 7087 compounds were tested, with a hit rate (>40% inhibition) of 3.09%. During screening, average Z values of 0.63 0.09 were observed. After chemistry triage, lead compounds were resynthesized and activity confirmed by IC50 determinations. The most potent compound identified (MRT00200769) gave rise to an IC50 of 1.3 M at Kir7.1. Compounds were assessed for selectivity using the inwardly rectifying potassium channel Kir1.1 (ROMK) and hERG (human Ether--go-go Related Gene). Pharmacological characterization of known Kir7.1 inhibitors was also carried out and analogues of VU590 tested to assess selectivity at Kir7.1.