<?xml version="1.0" encoding="UTF-8"?>
<VIOLIN>
	<pathogen pathogen_id="pathogen97">
		<pathogen_name>Leishmania donovani</pathogen_name>
		<taxon_id>5661</taxon_id>
		<pathogenesis refs="reference1438">The intracellular amastigote form multiplies in macrophages and produces a reticuloendothelial hyperplasia grossly affecting the spleen and liver, with other lymphoid tissues being involved as well, resulting in severe hepatosplenomegaly, which usually is fatal if untreated (WD: Leishmania donovani).</pathogenesis>
		<disease_name>Visceral leishmaniasis</disease_name>
		<protective_immunity refs="reference1165">A Strong Th1 response of cell mediated immunity is necessary for protection against L. donovani (Mizbani et al., 2009).</protective_immunity>
		<host_range refs="reference1548">Vector sand flies are infected by biting infected humans or animals. Animal reservoirs vary with the Leishmania sp and location and include canines, rodents, and other animals. In the Indian subcontinent, humans are the reservoir for L. donovani (Merck Manual: Leishmaniasis).</host_range>
		<introduction refs="reference1438">Leishmania donovani is a species that is the causal agent of visceral leishmaniasis in Mediterranean and adjacent countries, the south central section of western Asia, eastern India, northern China, Kenya, Ethiopia, and the Sudan; also found in Brazil, Argentina, Colombia, and Venezuela; in the Old World, it is transmitted by various species of Phlebotomus; New World vectors are species of Lutzomyia; dogs and other carnivores are known as reservoir hosts in some areas (WD: Leishmania donovani).</introduction>
	</pathogen>

	<host host_id="host55">
		<common_name>Baboon</common_name>
		<scientific_name>Papio cynocephalus</scientific_name>
		<taxon_id>9556</taxon_id>
    </host>
	<host host_id="host43">
		<common_name>Bank vole</common_name>
		<scientific_name>Clethrionomys glareolus</scientific_name>
		<taxon_id>447135</taxon_id>
    </host>
	<host host_id="host31">
		<common_name>Bear</common_name>
		<scientific_name>Ursus americanus</scientific_name>
		<taxon_id>9643</taxon_id>
    </host>
	<host host_id="host51">
		<common_name>Birds</common_name>
		<scientific_name>Passeroidea</scientific_name>
		<taxon_id>175121</taxon_id>
    </host>
	<host host_id="host35">
		<common_name>Brown Trout</common_name>
		<scientific_name>Salmo trutta</scientific_name>
		<taxon_id>8032</taxon_id>
    </host>
	<host host_id="host30">
		<common_name>Buffalo</common_name>
		<scientific_name>Bison bison</scientific_name>
		<taxon_id>9901</taxon_id>
    </host>
	<host host_id="host53">
		<common_name>Carnivores</common_name>
		<scientific_name>Vulpes</scientific_name>
		<taxon_id>9625</taxon_id>
    </host>
	<host host_id="host37">
		<common_name>Cat</common_name>
		<scientific_name>Felis catus</scientific_name>
		<taxon_id>9685</taxon_id>
    </host>
	<host host_id="host52">
		<common_name>Catfishes</common_name>
		<scientific_name>Siluriformes</scientific_name>
		<taxon_id>7995</taxon_id>
    </host>
	<host host_id="host12">
		<common_name>Cattle</common_name>
		<scientific_name>Bos taurus</scientific_name>
		<taxon_id>9913</taxon_id>
    </host>
	<host host_id="host8">
		<common_name>Chicken</common_name>
		<scientific_name>Gallus gallus</scientific_name>
		<taxon_id>9031</taxon_id>
    </host>
	<host host_id="host42">
		<common_name>Chimpanzee</common_name>
		<scientific_name>Pan troglodytes</scientific_name>
		<taxon_id>9598</taxon_id>
    </host>
	<host host_id="host26">
		<common_name>chinchillas</common_name>
		<scientific_name>Chinchillidae</scientific_name>
		<taxon_id>10150</taxon_id>
    </host>
	<host host_id="host24">
		<common_name>Copper Pheasant</common_name>
		<scientific_name>Syrmaticus soemmerringii</scientific_name>
		<taxon_id>9067</taxon_id>
    </host>
	<host host_id="host29">
		<common_name>Deer</common_name>
		<scientific_name>Cervus elaphus</scientific_name>
		<taxon_id>9860</taxon_id>
    </host>
	<host host_id="host32">
		<common_name>Deer mouse</common_name>
		<scientific_name>Peromyscus maniculatus</scientific_name>
		<taxon_id>10042</taxon_id>
    </host>
	<host host_id="host36">
		<common_name>Dog</common_name>
		<scientific_name>Canis familiaris</scientific_name>
		<taxon_id>9615</taxon_id>
    </host>
	<host host_id="host9">
		<common_name>Ducks</common_name>
		<scientific_name>Anas</scientific_name>
		<taxon_id>8835</taxon_id>
    </host>
	<host host_id="host19">
		<common_name>Ferret</common_name>
		<scientific_name>Mustela putorius furo</scientific_name>
		<taxon_id>9669</taxon_id>
    </host>
	<host host_id="host48">
		<common_name>Fish</common_name>
		<scientific_name>Hyperotreti</scientific_name>
		<taxon_id>117565</taxon_id>
    </host>
	<host host_id="host41">
		<common_name>Gerbil</common_name>
		<scientific_name>Gerbillina</scientific_name>
		<taxon_id>10045</taxon_id>
    </host>
	<host host_id="host13">
		<common_name>Goat</common_name>
		<scientific_name>Capra hircus</scientific_name>
		<taxon_id>9925</taxon_id>
    </host>
	<host host_id="host47">
		<common_name>Gray wolf</common_name>
		<scientific_name>Canis lupus</scientific_name>
		<taxon_id>9612</taxon_id>
    </host>
	<host host_id="host7">
		<common_name>Guinea pig</common_name>
		<scientific_name>Cavia porcellus</scientific_name>
		<taxon_id>10141</taxon_id>
    </host>
	<host host_id="host16">
		<common_name>Hamster</common_name>
		<scientific_name>Mesocricetus auratus</scientific_name>
		<taxon_id>10036</taxon_id>
    </host>
	<host host_id="host18">
		<common_name>Horse</common_name>
		<scientific_name>Equus caballus</scientific_name>
		<taxon_id>9796</taxon_id>
    </host>
	<host host_id="host2">
		<common_name>Human</common_name>
		<scientific_name>Homo sapiens</scientific_name>
		<taxon_id>9606</taxon_id>
    </host>
	<host host_id="host39">
		<common_name>Macaque</common_name>
		<scientific_name>Macaca fascicularis</scientific_name>
		<taxon_id>9541</taxon_id>
    </host>
	<host host_id="host40">
		<common_name>Mongolian Gerbil</common_name>
		<scientific_name>Meriones unguiculatus</scientific_name>
		<taxon_id>10047</taxon_id>
    </host>
	<host host_id="host5">
		<common_name>Monkey</common_name>
		<scientific_name>Platyrrhini</scientific_name>
		<taxon_id>9479</taxon_id>
    </host>
	<host host_id="host3">
		<common_name>Mouse</common_name>
		<scientific_name>Mus musculus</scientific_name>
		<taxon_id>10090</taxon_id>
    </host>
	<host host_id="host59">
		<common_name>None</common_name>
		<scientific_name>None</scientific_name>
		<taxon_id></taxon_id>
    </host>
	<host host_id="host50">
		<common_name>Parrot</common_name>
		<scientific_name>Psittacidae</scientific_name>
		<taxon_id>9224</taxon_id>
    </host>
	<host host_id="host15">
		<common_name>Pig</common_name>
		<scientific_name>Sus scrofa</scientific_name>
		<taxon_id>9823</taxon_id>
    </host>
	<host host_id="host6">
		<common_name>Rabbit</common_name>
		<scientific_name>Oryctolagus cuniculus</scientific_name>
		<taxon_id>9986</taxon_id>
    </host>
	<host host_id="host45">
		<common_name>Rainbow trout</common_name>
		<scientific_name>Oncorhynchus mykiss</scientific_name>
		<taxon_id>8022</taxon_id>
    </host>
	<host host_id="host4">
		<common_name>Rat</common_name>
		<scientific_name>Rattus</scientific_name>
		<taxon_id>10114</taxon_id>
    </host>
	<host host_id="host34">
		<common_name>Raven</common_name>
		<scientific_name>Corvus corax</scientific_name>
		<taxon_id>56781</taxon_id>
    </host>
	<host host_id="host54">
		<common_name>sei whale</common_name>
		<scientific_name>Balaenoptera borealis</scientific_name>
		<taxon_id>9768</taxon_id>
    </host>
	<host host_id="host17">
		<common_name>Sheep</common_name>
		<scientific_name>Ovis aries</scientific_name>
		<taxon_id>9940</taxon_id>
    </host>
	<host host_id="host28">
		<common_name>Squirrel</common_name>
		<scientific_name>Spermophilus richardsonii</scientific_name>
		<taxon_id>37591</taxon_id>
    </host>
	<host host_id="host44">
		<common_name>Tree shrew</common_name>
		<scientific_name>Tupaiidae</scientific_name>
		<taxon_id>9393</taxon_id>
    </host>
	<host host_id="host49">
		<common_name>Trouts, salmons & chars</common_name>
		<scientific_name>Salmoninae</scientific_name>
		<taxon_id>504568</taxon_id>
    </host>
	<host host_id="host38">
		<common_name>Turkey</common_name>
		<scientific_name>Meleagris gallopavo</scientific_name>
		<taxon_id>9103</taxon_id>
    </host>
	<host host_id="host33">
		<common_name>Vole</common_name>
		<scientific_name>Microtus ochrogaster</scientific_name>
		<taxon_id>79684</taxon_id>
    </host>
	<host host_id="host27">
		<common_name>Water buffalo</common_name>
		<scientific_name>Bubalus bubalis</scientific_name>
		<taxon_id>391902</taxon_id>
    </host>
	<vaccine vaccine_id="vaccine5712">
		<vaccine_name>ChAd63-KH</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0003961</vo_id>
		<type>Recombinant vector vaccine</type>
		<status>Clinical trial</status>
		<vector>adenovirus 63</vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs="reference5095">A recombinant vector vaccine for Leishmania donovani that uses an adenovirus 63 viral vector and kH protein (Osman et al., 2017).</description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs="reference5095">KH, a self-cleaving polyprotein comprising L. donovani HASPB and KMP-11 Proteins (Osman et al., 2017)</antigen>
	</vaccine>
	<vaccine vaccine_id="vaccine1031">
		<vaccine_name>L. donovani Beta-tubulin Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004023</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intraperitoneal injection (i.p.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs="reference1166">Cationic liposomes (Bhowmick and Ali, 2009).</adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intraperitoneal injection (i.p.)</route>
		<antigen refs="reference1166">four polypeptides 91(LD91), 72 (LD72), 51(LD51) and 31 (LD31)-kDa  (Bhowmick and Ali, 2009)</antigen>

		<gene_engineering gene_engineering_id="gene_engineering518" gene_id="gene565">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response785" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1166">Mice were immunized by intraperitoneal injections of 2.5 Âµg purified proteins in PBS or incorporated in liposome in a total volume of 200 Âµl. Animals receiving PBS or empty liposomes served as controls. Mice were boosted two times at 2-week intervals (Bhowmick and Ali, 2009).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1166">Results demonstrated that liposomal LD51 (beta-tubulin) reduced parasite burden by 72%-75%  (Bhowmick and Ali, 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1166">Ten days after the final immunization the mice were challenged with 2.5Ã—10^7 freshly transformed stationary-phase promastigotes in 200 Âµl PBS injected intravenously via the tail vein (Bhowmick and Ali, 2009).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1025">
		<vaccine_name>L. donovani DNA Vaccine encoding KMP-11</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0011530</vo_id>
		<type>DNA vaccine</type>
		<status>Research</status>
		<vector>pCMV-LIC [Ref1167:Bhaumik et al., 2009].</vector>
		<route>Subcutaneous injection</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Subcutaneous injection</route>
		<antigen refs="reference1167">KNP-11(Bhaumik et al., 2009)</antigen>

		<gene_engineering gene_engineering_id="gene_engineering512" gene_id="gene567">
			<type>DNA vaccine construction</type>
			<description refs="reference1167">KMP-11was cloned into a pCMV-LIC vector for DNA vaccine candidate in mice (Bhaumik et al., 2009).</description>
		</gene_engineering>
		<host_response host_response_id="host_response780" host_id="host3">
			<immune_response refs="reference1167">KMP-11 DNA immunization alone effectively caused a significant increase in frequency of both IFN-Î³ producing CD4+ T and CD8+ T cells in mice challenged with either LM or LD (Bhaumik et al., 2009).</immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1167">BALB/c mice were either immunized with KMP-11 containing pCMV-LIC mammalian expression vector (pCMV-LIC KMP-11) or with blank-vector construct not harboring KMP-11 gene (pCMV-LIC). rmIL-12 (1 Î¼g/injection) was used as an adjuvant and injected through s.c. route. 7 and 15 days before parasite challenge with LD or LM, 100 Î¼g of endotoxin-free plasmid DNA construct (pCMV-LIC, and pCMV-LIC KMP-11) dissolved in saline and injected i.m. in the hind leg thigh muscle was used for immunization of BALB/c mice using 28-gauge needle (Bhaumik et al., 2009).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1167">KMP-11 DNA vaccination alone in an experimental BALB/c mice model showed significant potential in terms of resolution of splenic and hepatic parasite burden against virulent LD challenge. KMP-11 DNA immunization significantly protects against L. donovani infection (Bhaumik et al., 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1167">6-weeks-old BALB/c mice were injected with 2 Ã— 10^6 LD second-passage promastigotes suspended in saline through intracardiac route and 2 Ã— 10^6 LM second-passage promastigotes through subcutaneous route in the hind footpad using a 28-gauge needle (Bhaumik et al., 2009).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1020">
		<vaccine_name>L. donovani DNA Vaccine encoding NH36 Protein</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0011542</vo_id>
		<type>DNA vaccine</type>
		<status>Research</status>
		<vector>VR1012 [Ref1171:Aguilar-Be et al., 2005]</vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs="reference1171">NH36 (Aguilar-Be et al., 2005)</antigen>

		<gene_engineering gene_engineering_id="gene_engineering507" gene_id="gene571">
			<type>DNA vaccine construction</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response774" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1171">Mice were immunized via intramuscular with 100 Î¼g of VR1012-NH36 plasmid DNA in 100 Î¼l of saline solution and boosted 2 weeks later by a second injection. Control groups included the empty VR1012 vector and saline solution (Aguilar-Be et al., 2005).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1171">Experimental infection of immunized BALB/c mice demonstrated that the VR1012-NH36 DNA vaccine derived from the nucleoside hydrolase gene (NH) of L. donovani induced an 88% reduction in L. chagasi parasite load and a 65% reduction in L. mexicana lesion size (Aguilar-Be et al., 2005).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1171">At 2 weeks after immunization, animals were challenged by intravenous injection of 2 Ã— 10^8 amastigotes of L. chagasi (MHOM/BR/72/BH46), another group of mice were challenged 2 weeks after the last immunization with 106 stationary-phase promastigotes of L. mexicana (MNYC/BZ/62/379) by s.c. injection in the hind footpad (Aguilar-Be et al., 2005).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1022">
		<vaccine_name>L. donovani gp63 Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0011532</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intraperitoneal injection (i.p.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs="reference1168">Cationic distearoyl phosphatidylcholine (DSPC) liposomes (Bhowmick et al., 2008).</adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intraperitoneal injection (i.p.)</route>
		<antigen refs="">gp63</antigen>

		<gene_engineering gene_engineering_id="gene_engineering509" gene_id="gene568">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response776" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1168">BALB/c mice were immunized by three intraperitoneal (i.p.) injections at 2-week intervals with graded doses (0.6 to 10 Î¼g) or 2.5 Î¼g of gp63 free in phosphate-buffered saline (PBS) or entrapped in liposomes (200 Î¼l). Animals receiving only PBS or empty liposomes served as controls (Bhowmick et al., 2008).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1168">gp63 used without adjuvant elicited partial protection but in association with liposomes exhibited marked resistance in both the livers and spleens of the mice challenged 10 days after the last vaccination (Bhowmick et al., 2008).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1168">At 10 days or 12 weeks postimmunization, groups of mice were either sacrificed for immunological assays or challenged intravenously with 2.5 Ã— 10^7 freshly transformed L. donovani promastigotes (Bhowmick et al., 2008).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1029">
		<vaccine_name>L. donovani GRP-78 Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004022</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Subcutaneous injection</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs="reference1164">recombinant IL-12 (Nagill and Kaur, 2010).</adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Subcutaneous injection</route>
		<antigen refs="reference1164">GRP-78 (Nagill and Kaur, 2010)</antigen>

		<gene_engineering gene_engineering_id="gene_engineering516" gene_id="gene561">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response783" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1164">Ten microgram of 78 kDa antigen along with different concentrations of adjuvants was used to immunize animals. Subcutaneous route was used for immunization of mice in all the groups. Twenty-five BALB/c mice were used for each immunization group and the control group (immunized with PBS only).The animals who received only PBS as vaccine candidate served as controls. Two booster doses with the same respective vaccine combination were given to all immunized groups at an interval of 2 weeks each (Nagill and Kaur, 2010).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1164">Maximum protection was conferred by 78 kDa antigen + rIL-12 vaccine (with parasite load reduction of 71â€“94.8% on 30â€“90 p.c.d.) (Nagill and Kaur, 2010)</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1164">Two weeks after last booster dose, mice of control and immunized groups were challenged with 1 Ã— 10^7 promastigotes (Nagill and Kaur, 2010).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1028">
		<vaccine_name>L. donovani HASPB1 Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004067</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Subcutaneous injection</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Subcutaneous injection</route>
		<antigen refs="reference1172">Recombinant hydrophilic acylated surface protein B1 (HASPB1) (StÃ¤ger et al., 2000).</antigen>

		<gene_engineering gene_engineering_id="gene_engineering515" gene_id="gene572">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response782" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1172">In the first two vaccination experiments, BALB/c mice received s.c. immunization with either 1) 10 Âµg rHASPB1 with 1 Âµg murine rIL-12; 2) 10 Âµg rHASPB1 in saline; 3) 10 Âµg SLA plus 1 Âµg rmIL-12; 4) 1 Âµg rmIL-12; and 5) saline. Three weeks later, mice were boosted with the same schedule, but the IL-12 dose was reduced to 0.5 Âµg. After an additional 3 wk, a final boost was given omitting IL-12. In the third vaccination experiment, mice  were immunized three times at 3-wk intervals with 10 Âµg rHASPB1 or OVA (Sigma) (StÃ¤ger et al., 2000).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1172">rHASPB1 provided significant protection against challenge with L. donovani (StÃ¤ger et al., 2000).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1172">All mice were challenged 3 wk after the last boost with 2 x 10^7 amastigotes, given i.v. in the lateral tail vein (StÃ¤ger et al., 2000).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1109">
		<vaccine_name>L. donovani Hsp70 Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004033</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector>Liposomes</vector>
		<route>Intraperitoneal injection (i.p.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intraperitoneal injection (i.p.)</route>
		<antigen refs="">LD72 (Hsp70) protein</antigen>

		<gene_engineering gene_engineering_id="gene_engineering599" gene_id="gene566">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response866" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1166">Mice were immunized by intraperitoneal injections of 2.5 Âµg purified proteins in PBS or incorporated in liposome in a total volume of 200 Âµl. Animals receiving PBS or empty liposomes served as controls. Mice were boosted two times at 2-week intervals (Bhowmick and Ali, 2009).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1166">Mice immunized with liposomal LD72 (Hsp70) had a reduced parasite burden of  65%-67% (Bhowmick and Ali, 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1166">Ten days after the final immunization rest of the mice were challenged with 2.5Ã—10^7 freshly transformed stationary-phase promastigotes in 200 Âµl PBS injected intravenously via the tail vein (Bhowmick and Ali, 2009).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1030">
		<vaccine_name>L. donovani LD31 Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004179</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intraperitoneal injection (i.p.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs="reference1166">Cationic liposomes (Bhowmick and Ali, 2009).</adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intraperitoneal injection (i.p.)</route>
		<antigen refs=""></antigen>

		<gene_engineering gene_engineering_id="gene_engineering517" gene_id="gene564">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response784" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1166">Mice were immunized by intraperitoneal injections of 2.5 Âµg purified proteins in PBS or incorporated in liposome in a total volume of 200 Âµl. Animals receiving PBS or empty liposomes served as controls. Mice were boosted two times at 2-week intervals (Bhowmick and Ali, 2009).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1166">Liposomal LD31 (ATP synthase alpha chain) reduced parasite burden by 74%-77% (Bhowmick and Ali, 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1166">Ten days after the final immunization the mice were challenged with 2.5Ã—10^7 freshly transformed stationary-phase promastigotes in 200 Âµl PBS injected intravenously via the tail vein (Bhowmick and Ali, 2009).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1017">
		<vaccine_name>L. donovani ORFF Protein Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0011539</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs="reference1169">An expression plasmid encoding both p35 and p40 subunits of IL-12 was used as an adjuvant (Tewary et al., 2006).</adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs=""></antigen>

		<gene_engineering gene_engineering_id="gene_engineering504" gene_id="gene569">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response771" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1169">Injections were given at midpoint of left thigh muscle. For the vaccination studies, cell proliferation, cytokine production and antibody response BALB/c mice were immunized intramuscularly with either alum alone diluted in phosphate buffered saline (PBS) final volume 100 or 50 Î¼g of rORFF adsorbed on alum or 100 Î¼g of IL-12 plasmid DNA diluted in PBS or 50 Î¼g of rORFF adsorbed on alum in combination with IL-12 DNA. Three weeks later mice were immunized with the same schedule (Tewary et al., 2006).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1169">An expression plasmid encoding both p35 and p40 subunits of IL-12 when co-administered with a recombinant open-reading frame (rORFF) gene from the LD1 locus of Leishmania donovani induces significant protection with around 82% protection in both liver and spleen of BALB/c mice when challenged with L. donovani (Tewary et al., 2006).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1169">1 Ã— 10^8 stationary phase promastigotes of L. donovani were injected intravenously via the tail vein in 100 Î¼l of PBS per mouse (Tewary et al., 2006).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine3070">
		<vaccine_name>L. donovani Recombinant LdÎ³GCS in NIV system Vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004241</vo_id>
		<type>Subunit vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intravenous injection (i.v.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intravenous injection (i.v.)</route>
		<antigen refs="reference1896">Recombinant Leishmania donovani gamma-glutamyl cysteine synthetase protein (LdÎ³GCS)  (Henriquez et al., 2010).</antigen>
		<host_response host_response_id="host_response900" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1896">The day of infection was day 0 so that vaccination occurred pre-infection on day âˆ’28 and day âˆ’14. Animals (n â€Š=â€Š 5/treatment) were immunized with either LPS (10 ng/ml equivalent to 5 EU/ml, 1 ng/dose), LdÎ³GCS (2 or 50 Âµg, used as prepared or processed to remove endotoxin), or LdÎ³GCS incorporated into NIV (50 Âµg) on days âˆ’28 and âˆ’14 (Henriquez et al., 2010).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1896">Incorporating LdÎ³GCS into a NIV formulation was more effective than immunization with LdÎ³GCS alone based on its ability to induce specific antibody pre- and post-infection. However, the vesicular formulation gave a similar level of protection as immunization with LdÎ³GCS alone (Henriquez et al., 2010).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1896">On day 0 immunized mice and a control group (n â€Š=â€Š 4â€“10/treatment) were infected by intravenous injection (tail vein, no anaesthetic) with 1â€“2 Ã— 10^7 L. donovani strain 200016 amastigotes harvested from the spleen of an infected hamster (Henriquez et al., 2010).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine3099">
		<vaccine_name>LEISH-F1+MPL-SE vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004266</vo_id>
		<type>Subunit vaccine</type>
		<status>Clinical trial</status>
		<vector></vector>
		<route>subcutaneous injection</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">subcutaneous injection</route>
		<antigen refs="reference2038">Recombinant Leishmania polyprotein LEISH-F1 (formerly known as Leish-111f) antigen. The antigen component of the vaccine includes three proteins derived from L. major and conserved across various Leishmania species, including L. donovani; L. chagasi, which causes New World VL; and L. braziliensis, which causes both CL and mucosal leishmaniasis (ML) in the New World. The three proteins are: Leishmania elongation initiation factor (LeIF), thiol-specific antioxidant (TSA), and Leishmania major stress-inducible protein 1 (LmSTI1) (Chakravarty et al., 2011).</antigen>
		<host_response host_response_id="host_response928" host_id="host2">
			<immune_response refs="reference2038">There were statistically significant increases in median cytokine concentrations at day 84 compared to day 0 for all measured cytokines except IL-4 in the DAT-positives and IL-10 in both DAT-negatives and DAT-positives, although in some cases the differences were quite small (Chakravarty et al., 2011).</immune_response>
			<host_strain refs=""></host_strain>
			<vaccination_protocol refs="reference2038">The subjects in this trial were healthy male and female adults â‰¥18 years and &lt;55 years of age from the village near Varanasi that had experienced an outbreak of VL approximately 15 years prior to the start of the trial. Eligible subjects were enrolled into the trial in three sequential cohorts (Fig. 1a). The vaccine consisted of LEISH-F1 antigen (5 Î¼g in Cohort 1, 10 Î¼g in Cohort 2, and 20 Î¼g in Cohort 3) + MPL-SE adjuvant (25 Î¼g), and was administered subcutaneously in the upper arm in a volume of 0.5 mL on days 0, 28, and 56. Subjects were followed through day 168 (Chakravarty et al., 2011).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs=""></protection_efficacy>
			<side_effects refs="reference2038">Malaise was the predominant solicited systemic reaction, followed by myalgia, pyrexia, and headache. All local injection-site and systemic reactions were of mild or moderate severity (Chakravarty et al., 2011).</side_effects>
			<challenge_protocol refs=""></challenge_protocol>
			<description refs="reference2038">The LEISH-F1 + MPL-SE vaccine was safe and well-tolerated in this population of DAT-negative and DAT-positive subjects (Chakravarty et al., 2011).</description>
		</host_response>
		<host_response host_response_id="host_response929" host_id="host2">
			<immune_response refs="reference2038">There were statistically significant increases in median cytokine concentrations at day 84 compared to day 0 for all measured cytokines except IL-4 in the DAT-positives and IL-10 in both DAT-negatives and DAT-positives, although in some cases the differences were quite small (Chakravarty et al., 2011).</immune_response>
			<host_strain refs=""></host_strain>
			<vaccination_protocol refs="reference2038">The subjects in this trial were healthy male and female adults â‰¥18 years and &lt;55 years of age from the village near Varanasi that had experienced an outbreak of VL approximately 15 years prior to the start of the trial. Eligible subjects were enrolled into the trial in three sequential cohorts (Fig. 1a). The vaccine consisted of LEISH-F1 antigen (5 Î¼g in Cohort 1, 10 Î¼g in Cohort 2, and 20 Î¼g in Cohort 3) + MPL-SE adjuvant (25 Î¼g), and was administered subcutaneously in the upper arm in a volume of 0.5 mL on days 0, 28, and 56. Subjects were followed through day 168 (Chakravarty et al., 2011).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs=""></protection_efficacy>
			<side_effects refs="reference2038">Malaise was the predominant solicited systemic reaction, followed by myalgia, pyrexia, and headache. All local injection-site and systemic reactions were of mild or moderate severity (Chakravarty et al., 2011).</side_effects>
			<challenge_protocol refs=""></challenge_protocol>
			<description refs="reference2038">The LEISH-F1 + MPL-SE vaccine was safe and well-tolerated in this population of DAT-negative and DAT-positive subjects (Chakravarty et al., 2011).</description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine3216">
		<vaccine_name>Leishmania donovani cen1 mutant vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0003005</vo_id>
		<type>Live, attenuated vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intravenous injection (i.v.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intravenous injection (i.v.)</route>
		<antigen refs=""></antigen>

		<gene_engineering gene_engineering_id="gene_engineering755" gene_id="gene923">
			<type>Gene mutation</type>
			<description refs="reference1775">This cen1 mutant is from Leishmania donovani (Selvapandiyan et al., 2009).</description>
		</gene_engineering>
		<host_response host_response_id="host_response1041" host_id="host16">
			<immune_response refs=""></immune_response>
			<host_strain refs=""></host_strain>
			<vaccination_protocol refs=""></vaccination_protocol>
			<persistence refs="reference1775">A cen1 mutant is attenuated in hamsters (Selvapandiyan et al., 2009).</persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1775">A cen1 mutant induces significant protection in hamsters from challenge with wild type L. donovani (Selvapandiyan et al., 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs=""></challenge_protocol>
			<description refs=""></description>
		</host_response>
		<host_response host_response_id="host_response1042" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs=""></host_strain>
			<vaccination_protocol refs=""></vaccination_protocol>
			<persistence refs="reference1775">A cen1 mutant is attenuated in mice (Selvapandiyan et al., 2009).</persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1775">A cen1 mutant induces significant protection in mice from challenge with wild type L. donovani (Selvapandiyan et al., 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs=""></challenge_protocol>
			<description refs=""></description>
              <host_gene_response host_gene_response_id="host_gene_response196" gene_id="gene1">
			    <description refs="reference1775">The results thus indicate an increased IFN-Î³ secretion coinciding with reduced IL-10 production among the immunized mice.  In the restimulated CD4+ T cells from the spleen, the IFN-Î³/IL-10 ratio was significantly higher in the immunized mice both at the time of challenge (5 weeks after immunization) and after challenge (5 weeks after immunization plus 10 weeks after challenge) compared with either naive or naive-challenged controls.  We also observed an absolute requirement for IFN-Î³ in LdCen1âˆ’/âˆ’-induced immunity. IFN-Î³ knockout mice immunized with LdCen1âˆ’/âˆ’ for 5 wk followed by challenge were not protected (Selvapandiyan et al., 2009).</description>
			  </host_gene_response>
              <host_gene_response host_gene_response_id="host_gene_response198" gene_id="gene1137">
			    <description refs="reference1775">The number of T cells producing TNF-alpha increased significantly as compared to naive mice 5 weeks after immunization in CD8+ cells as well as 5 weeks after immunization plus 10 weeks after challenge in both CD4+ and CD8+ cells (Selvapandiyan et al., 2009).</description>
			  </host_gene_response>
              <host_gene_response host_gene_response_id="host_gene_response199" gene_id="gene1121">
			    <description refs="reference1775">The number of T cells producing IL-2 increased significantly as compared to naive mice 5 weeks after immunization in CD4+ and CD8+ cells as well as 5 weeks after immunization plus 10 weeks after challenge in both CD4+ and CD8+ cells (Selvapandiyan et al., 2009).</description>
			  </host_gene_response>
              <host_gene_response host_gene_response_id="host_gene_response202" gene_id="gene1106">
			    <description refs="reference1775">Sera from BALB/c mice taken 10 wk post challenge after 5, 12, or 16 immunization weeks were measured for Leishmania-specific IgG2a responses. Results indicated a significantly higher level of IgG2a populations in the immune-challenged groups compared with the naive challenged groups (Selvapandiyan et al., 2009).</description>
			  </host_gene_response>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine1032">
		<vaccine_name>Leishmania vaccine using recombinant L. tarentolae strain expressing A2 antigen</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004180</vo_id>
		<type>Recombinant vector vaccine</type>
		<status>Research</status>
		<vector>Leishmania tarentolae, a non-pathogenic member of the genus Leishmania [Ref1165:Mizbani et al., 2009].</vector>
		<route>Intraperitoneal injection (i.p.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intraperitoneal injection (i.p.)</route>
		<antigen refs="">mouse</antigen>

		<gene_engineering gene_engineering_id="gene_engineering519" gene_id="gene563">
			<type>Recombinant protein preparation</type>
			<description refs=""></description>
		</gene_engineering>
		<host_response host_response_id="host_response786" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs="">BALB/c</host_strain>
			<vaccination_protocol refs="reference1165">In the case of i.p. immunization, total number of 5 Ã— 10^6 stationary-phase promastigotes were used. Mice were immunized with L. tarentolae expressing the GFP only as a control and another group were immunized with recombinant L. tarentolae-A2 (Mizbani et al., 2009).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference1165">Study results show that a single intraperitoneal administration of the A2-recombinant L. tarentolae strain expressing the Leishmania donovani A2 antigen protects BALB/c mice against L. infantum challenge and that protective immunity is associated with high levels of IFN-gamma production prior and after challenge (Mizbani et al., 2009).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference1165">Six weeks after immunization, animals were challenged with 10^7 virulent stationary-phase L. infantum promastigotes through the lateral tail vein (Mizbani et al., 2009).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine435">
		<vaccine_name>Leishmune</vaccine_name>
		<proper_name></proper_name>
		<brand_name>Leishmune</brand_name>
		<manufacturer>Fort Dodge</manufacturer>
		<vo_id>VO_0001200</vo_id>
		<type>Inactivated or "killed" vaccine</type>
		<status>Licensed</status>
		<vector></vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs="reference853">Native fucose-mannose-ligand antigen complex(Borja-Cabrera et al., 2002)</description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs=""></antigen>
	</vaccine>
	<vaccine vaccine_id="vaccine6809">
		<vaccine_name>licensed Visceral leishmaniasis human vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name>Generic</brand_name>
		<manufacturer>Unknown</manufacturer>
		<vo_id>VO_0001142</vo_id>
		<type>Live, attenuated vaccine</type>
		<status>Licensed</status>
		<vector></vector>
		<route></route>
		<location_licensed></location_licensed>
		<description refs="">A generic representation of vaccines developed to prevent visceral leishmaniasis in humans, most commonly utilizing live, attenuated Leishmania parasites to stimulate protective immunity. These vaccines aim to mimic natural infection while minimizing pathogenicity.</description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs=""></route>
		<antigen refs=""></antigen>
	</vaccine>
	<vaccine vaccine_id="vaccine3106">
		<vaccine_name>pVAX-P1 DNA vaccine</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004272</vo_id>
		<type>DNA vaccine</type>
		<status>Research</status>
		<vector>pVAX1 [Ref2053:Arora et al., 2011]</vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs="reference2053">pVAX-P1 DNA vaccine, given in prime-boost mode is protective against L. donovani (Arora et al., 2011).</description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs=""></preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs="reference2053">P1 gene of Leishmania donovani (Arora et al., 2011).</antigen>

		<gene_engineering gene_engineering_id="gene_engineering615" gene_id="gene1073">
			<type>DNA vaccine construction</type>
			<description refs="reference2053">The purified full-length ORF cloned non-directionally in pGEMT-Easy vector was digested out and then directionally sub-cloned in pVAX1 vector (Invitrogen, USA). The purified plasmid DNA containing full-length ORF was confirmed by DNA sequencing also. The plasmid DNA was made endotoxin-free by using Endofree Plasmid DNA Mega Purification Kit (Qiagen, Hilden, Germany) according to the manufacturerâ€™s instructions. The endotoxin free plasmid DNA (termed pVAX-P1) was used for the immunization of animals as DNA vaccine (Arora et al., 2011).</description>
		</gene_engineering>
		<host_response host_response_id="host_response935" host_id="host16">
			<immune_response refs=""></immune_response>
			<host_strain refs="">Syrian golden</host_strain>
			<vaccination_protocol refs="reference2053">Six weeks old Syrian golden hamsters (Mesocricetus auratus) were immunized in the following groups, with 6 hamsters per group. Group I: NaÃ¯ve animals (Unimmunized â€“ uninfected) were given PBS only and not challenged, group II: Animals were immunized with recombinant protein vaccine, rLdP1 (50 Î¼g) along with Complete Freundâ€™s adjuvant and two booster doses of same amount of antigen given with Incomplete Freundâ€™s adjuvant, group III: Hamsters immunized with plasmid DNA vaccine alone, pVAX1-P1 single dose, group IV: Hamsters immunized with pVAX-P1 and given a prime-boost dose after 15 days, group V: Hamsters immunized with pVAX1-vector only and group VI: Unimmunized â€“ were given PBS only (Arora et al., 2011).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs=""></immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference2053">Prime-boost immunization with pVAX-21 DNA vaccine resisted the increase in spleen parasite burden by 75.68% (Arora et al., 2011).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference2053">All the animals except group I, were challenged with 1 Ã— 10^7 promastigotes (from late log-phase axenic cultures) intracardially (i.c.) on day 28. The hamsters were observed for 6â€“8 weeks post challenge (p.c.). At the end of 10 weeks post infection, the surviving animals were euthanized and parasitological and immunological parameters were studied (Arora et al., 2011).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<vaccine vaccine_id="vaccine4154">
		<vaccine_name>SL3261-L. donovani</vaccine_name>
		<proper_name></proper_name>
		<brand_name></brand_name>
		<manufacturer></manufacturer>
		<vo_id>VO_0004672</vo_id>
		<type>Recombinant vector vaccine</type>
		<status>Research</status>
		<vector></vector>
		<route>Intramuscular injection (i.m.)</route>
		<location_licensed></location_licensed>
		<description refs=""></description>
		<adjuvant refs=""></adjuvant>
		<storage refs=""></storage>
		<virulence refs=""></virulence>
		<preparation refs="reference3133">Five chosen antigens were differentially expressed on the surface or in the cytosol of Salmonella typhimurium SL3261. A two-step procedure was developed to select optimal Salmonella vaccine strains for each antigen, based on bacterial fitness and antigen expression levels (Schroeder et al., 2011).</preparation>
		<route refs="">Intramuscular injection (i.m.)</route>
		<antigen refs=""></antigen>

		<gene_engineering gene_engineering_id="gene_engineering1736" gene_id="gene567">
			<type>Recombinant vector construction</type>
			<description refs="reference3133">The sequence encoding cholera toxin B subunit signal peptide was followed by SpeI/BglII sites for in frame directional cloning of ORF of interest fused with downstream sequences coding for a hemagglutinin epitope (HA)-tag and the transporter domain of AIDA (Schroeder et al., 2011)</description>
		</gene_engineering>
		<host_response host_response_id="host_response1826" host_id="host3">
			<immune_response refs=""></immune_response>
			<host_strain refs=""></host_strain>
			<vaccination_protocol refs="reference3133">Mice were vaccinated with a single dose of Salmonella vaccine strains, the carrier control SL3261 or treated with PBS (Schroeder et al., 2011).</vaccination_protocol>
			<persistence refs=""></persistence>
			<immune_response_type refs="">VO_0003057</immune_response_type>
			<immune_response_type refs=""></immune_response_type>
			<protection_efficacy refs="reference3133">The vaccine strains of Salmonella expressing the novel Leishmania antigens LinJ08.1190 and LinJ23.0410 significantly reduced visceralisation of L. major and enhanced systemic resistance against L. donovani in susceptible BALB/c mice. The results show that Salmonella are valid vaccine carriers for inducing resistance against visceral leishmaniasis but that their use may not be suitable for all antigens (Schroeder et al., 2011).</protection_efficacy>
			<side_effects refs=""></side_effects>
			<challenge_protocol refs="reference3133">Mice were subsequently challenged with 2Ã—10^6 late-stationary phase L. major promastigotes into the left hind footpad (Schroeder et al., 2011).</challenge_protocol>
			<description refs=""></description>
		</host_response>
	</vaccine>
	<gene gene_id="gene563">
        <gene_name>A2</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011153</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>30385439</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs></xrefs>
        <taxonomy_id>5671</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>stage-specific S antigen-like protein</protein_name>
        <protein_pi>4.19</protein_pi>
        <protein_weight>9285.64</protein_weight>
        <protein_length>194</protein_length>
        <protein_note>zymodeme MON-29</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAP21105.1 stage-specific S antigen-like protein [Leishmania infantum]
MKIRSVRPLVVLLVCVAAVLALSASAEPHKAAVDAGPLSVDVGPLSVDVGPLSVGPQSVGPLSVGPQSVD
PLSVDVGPLSVGPQSVGPLSVDVGPLSVGPQSVGPLSVGLQAVDVSPVS

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study results show that a single intraperitoneal administration of the A2-recombinant L. tarentolae strain expressing the Leishmania donovani A2 antigen protects BALB/c mice against L. infantum challenge and that protective immunity is associated with high levels of IFN-gamma production prior and after challenge [Ref1165:Mizbani et al., 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene565">
        <gene_name>Beta-tubulin</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011155</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>262233287</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:276956
CDD:240228</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>beta tubulin</protein_name>
        <protein_pi>6.31</protein_pi>
        <protein_weight>37694.97</protein_weight>
        <protein_length>416</protein_length>
        <protein_note>The beta-tubulin family; cd02187</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>ACY38664.1 beta tubulin, partial [Leishmania donovani]
ESAGGRYVPRAVLMDLEPGTMDSVRAGPYGQLFRPDNFIFGQSGAGNNWAKGHYTEGAELIDSVLDVCRK
EAESCDCLQGFQLSHSLGGGTGSGMGTLLISKLREEYPDRIMMTFSVIPSPRVSDTVVEPYNTTLSVHQL
VENSDESMCIDNEALYDICFRTLKLTTPTFGDLNHLVAAVMSGVTCCLRFPGQLNSDLRKLAVNLVPFPR
LHFFMMGFAPLTSRGSHQYPGLSVAELTQQMFDAKNMMQAADPRHGRYLTASALFRGRMSTKEVDEQMLN
VQNKNSSYFIEWIPNNIKSSICDIPPKGLKMSVTFIGNNTCIQEMFRRVGEQFTGMFRRKACLHWYTGEG
MDE

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study compared the vaccine efficacy of various L. donovani antigens encapsulated in cationic liposomes in BALB/c mice against challenge infection with L. donovani. Results demonstrated that liposomal LD51 (beta-tubulin) reduced parasite burden by 72%-75% [Ref1166:Bhowmick and Ali, 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene923">
        <gene_name>cen1</gene_name>
        <strain></strain>
        <vo_id></vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>15488542</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:185503
CDD:28933</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>centrin</protein_name>
        <protein_pi></protein_pi>
        <protein_weight></protein_weight>
        <protein_length>149</protein_length>
        <protein_note>centrin; Provisional</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>gi|15488542|gb|AAL01153.1|AF406767_1 centrin [Leishmania donovani]
MAALTDEQIREAFNLFDADGSGAIDAEEMALAMKGLGFGDLSRDEVERIIRSMHTDSNGLVAYGEFEAMV
KSRMAQKDSPEEILKAFQLFDLDKKGKISFANLKEVAKLLGENPGDDVLKEMIAEADEDGDGEVSFEEFK
SVMLHMRGK</protein_sequence>
        <phi_function>Virmugen</phi_function>
        <phi_annotation>A cen1 mutant is attenuated in mice and hamsters and induces significant protection from challenge with wild type L. donovani [Ref1775:Selvapandiyan et al., 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene564">
        <gene_name>F1-ATPase</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011154</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>722242</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:304359
CDD:238540
CDD:278722</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>F1-ATPase beta subunit</protein_name>
        <protein_pi>4.18</protein_pi>
        <protein_weight>20953.9</protein_weight>
        <protein_length>292</protein_length>
        <protein_note>promastigotes of Leishmania donovani Sudan 1S maintained in liquid culture as a suspension</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAA73465.1 F1-ATPase beta subunit, partial (mitochondrion) [Leishmania donovani]
KVALVYGQMNEPPGARAGVAESAVTMAEYFRDVEGQNVLLFIDNIFRFTQANSEVSALLGRIPAAVGYQP
TLAEDLGMLQERITSTTKGSITSVQAVYVPADDITDPAPATTFSHLDATTVLDRAVAESGIYPAVNPLEC
ASRIMDPDVIDVDHYNVAQDIVQMLTKYKELQDIIAVLGIDELSEEDKVVVDRARKVTRFLSQPFQ

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study compared the vaccine efficacy of various L. donovani antigens encapsulated in cationic liposomes in BALB/c mice against challenge infection with L. donovani.  Results demonstrated that liposomal LD31 (ATP synthase alpha chain) reduced parasite burden by 74%-77% [Ref1166:Bhowmick and Ali, 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene561">
        <gene_name>GRP-78</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011152</vo_id>
        <ncbi_gene_id>13386966</ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>16797868</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:240227
CDD:212681</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>glucose-regulated protein 78</protein_name>
        <protein_pi>4.92</protein_pi>
        <protein_weight>63125.03</protein_weight>
        <protein_length>710</protein_length>
        <protein_note>heat shock 70 kDa protein; Provisional</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAL29192.1 glucose-regulated protein 78, partial [Leishmania donovani]
GKVEAPCVGVDLGTTYSVAGVWQKGEVHIVTNEMGNRITPSVVAFTDAERLVGDGAKNQLPQNPENTIYA
IKRLIGRKYVDPTVQNDKKLLSYHIVADKTGKPLVQVTVKGQQKRFTPEEVSAMVLQKMKEISETFLGEK
VKNAVVTVPAYFNDAQRQATKDSGKIAGLNVVRIINEPTAAAIAYGLNKAGEKNILVFDLGGGTFDVSLA
DNRRGFFEVVATNGDTHLGGEDFDNNMMKFFVDGLKRKQNVDISNDQKALARLRKACEAAKRQLSSHPEA
RVEVDSLVEGYDFSEKITRAKFEELNMALFKNTLVPVQKVLEDAKLKKSDIDEIVLVGGSTRIPKVQQLI
KDFFSGKEPNKGINPDEAVAYGAAVQAAVLTGESEVGGKVVLVDVIPLSLGIETVGGVMTKLIERNTQIP
TKKSQIFSTYQDNQPSVLIQVFEGERGMTKDNRLLGKFDLSGIPPAPRGVPQIEVAFDVDENSILQVTAS
DKSSGKREEITITNDKGRLSEEEIERMVREAAEFEDEDRKVRERVEAKNSLESIAYSLRNQINDKDKLGD
KLAADDKKAIEEAVKDALDFVDENPNADREEFEAARTKLQSVTNPIIQKVYQGTAGSGAEEADAMDDL

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>BALB/c mice were immunized with a vaccine expressing the 78kDa (GRP-78) antigen of Leishmania donovani. Challenge infection was given intracardially after 2 weeks of second booster. A significant decrease in parasite burden was seen in vaccinees over the infected controls on all post challenge days and was found that maximum protection was provided by 78kDa+rIL-12 vaccine.  It was highly immunogenic as depicted by the reduction in parasite load (71-94.8%) [Ref1164:Nagill and Kaur, 2010].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene572">
        <gene_name>HASPB1</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011162</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>51847753</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:273344</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>cell surface protein B1</protein_name>
        <protein_pi>4.46</protein_pi>
        <protein_weight>15792.04</protein_weight>
        <protein_length>217</protein_length>
        <protein_note>K+-dependent Na+/Ca+ exchanger; TIGR00927</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAU10514.1 cell surface protein B1, partial [Leishmania donovani]
PKEDGHTQKNDGDGPKEDGHTQKNDGDGPKEDGHTQKNDGDGPKEDGHTQKNDGDGPKEDGHTQKNDGDG
PKEDGHTQKNDGDGPKEDGHTQKNDGDGPKEDGHTQKNDGDGPKEDGHTQKNDGDAPKEDGRTQRNDGDG
PKEDGH

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study demonstrated for the first time that a recombinant stage-specific hydrophilic surface protein of Leishmania donovani, recombinant hydrophilic acylated surface protein B1 (HASPB1), is able to confer protection against experimental challenge with L. donovani in BALB/c mice [Ref1172:StÃ¤ger et al., 2000].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene566">
        <gene_name>hsp70</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011156</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>281426606</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:302596
GOA:D2EAU9
InterPro:IPR001023
InterPro:IPR013126
InterPro:IPR018181
UniProtKB/TrEMBL:D2EAU9</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>heat shock protein 70</protein_name>
        <protein_pi>5.03</protein_pi>
        <protein_weight>47979.15</protein_weight>
        <protein_length>532</protein_length>
        <protein_note>Nucleotide-Binding Domain of the sugar kinase/HSP70/actin superfamily; cl17037</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>CAZ04896.1 heat shock protein 70, partial [Leishmania donovani]
DSQRQATKDAGTIAGLEVLRIINEPTAAAIAYGLDKGDDGKERNVLIFDLGGGTFDVTLLTIDGGIFEVK
ATNGDTHLGGEDFDNRLVTFFTEEFKRKNKGKNLASSHRALRRLRTACERAKRTLSSATQATIEIDALFE
NVDFQATITRARFEELCGDLFRSTIQPVERVLQDAKMDKRSVHDVVLVGGSTRIPKVQSLVSDFFGGKEL
NKSINPDEAVAYGAAVQAFILTGGKSKQTEGLLLLDVTPLTLGIETAGGVMTALIKRNTTIPTKKSQIFS
TYADNQPGVHIQVFEGERAMTKDCHLLGTFDLSGIPPAPRGVPQIEVTFDLDANGILNVSAEEKGTGKRN
QITITNDKGRLSKDEIERMVNDAMKYEADDRAQRDRVEAKNGLENYAYSMKNTLGDSNVSGKLDDSDKAT
LNKEIDVTLEWLSSNQEATKEEYEHKQKELESVCNPIMT

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study compared the vaccine efficacy of various L. donovani antigens encapsulated in cationic liposomes in BALB/c mice against challenge infection with L. donovani. Results demonstrated that liposomal LD72 (Hsp70) reduced parasite burden by 65%-67% [Ref1166:Bhowmick and Ali, 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene1">
        <gene_name>Ifng (Interferon gamma)</gene_name>
        <strain>Mouse</strain>
        <vo_id></vo_id>
        <ncbi_gene_id>15978</ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>33468859</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq>NM_008337</gene_refseq>
        <protein_refseq>NP_032363.1</protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>MGI:107656; UniProt:P01580</xrefs>
        <taxonomy_id>10090</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name></protein_name>
        <protein_pi></protein_pi>
        <protein_weight></protein_weight>
        <protein_length></protein_length>
        <protein_note></protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence>>gi|145966741|ref|NM_008337.3| Mus musculus interferon gamma (Ifng), mRNA
ATAGCTGCCATCGGCTGACCTAGAGAAGACACATCAGCTGATCCTTTGGACCCTCTGACTTGAGACAGAA
GTTCTGGGCTTCTCCTCCTGCGGCCTAGCTCTGAGACAATGAACGCTACACACTGCATCTTGGCTTTGCA
GCTCTTCCTCATGGCTGTTTCTGGCTGTTACTGCCACGGCACAGTCATTGAAAGCCTAGAAAGTCTGAAT
AACTATTTTAACTCAAGTGGCATAGATGTGGAAGAAAAGAGTCTCTTCTTGGATATCTGGAGGAACTGGC
AAAAGGATGGTGACATGAAAATCCTGCAGAGCCAGATTATCTCTTTCTACCTCAGACTCTTTGAAGTCTT
GAAAGACAATCAGGCCATCAGCAACAACATAAGCGTCATTGAATCACACCTGATTACTACCTTCTTCAGC
AACAGCAAGGCGAAAAAGGATGCATTCATGAGTATTGCCAAGTTTGAGGTCAACAACCCACAGGTCCAGC
GCCAAGCATTCAATGAGCTCATCCGAGTGGTCCACCAGCTGTTGCCGGAATCCAGCCTCAGGAAGCGGAA
AAGGAGTCGCTGCTGATTCGGGGTGGGGAAGAGATTGTCCCAATAAGAATAATTCTGCCAGCACTATTTG
AATTTTTAAATCTAAACCTATTTATTAATATTTAAAACTATTTATATGGAGAATCTATTTTAGATGCATC
AACCAAAGAAGTATTTATAGTAACAACTTATATGTGATAAGAGTGAATTCCTATTAATATATGTGTTATT
TATAATTTCTGTCTCCTCAACTATTTCTCTTTGACCAATTAATTATTCTTTCTGACTAATTAGCCAAGAC
TGTGATTGCGGGGTTGTATCTGGGGGTGGGGGACAGCCAAGCGGCTGACTGAACTCAGATTGTAGCTTGT
ACCTTTACTTCACTGACCAATAAGAAACATTCAGAGCTGCAGTGACCCCGGGAGGTGCTGCTGATGGGAG
GAGATGTCTACACTCCGGGCCAGCGCTTTAACAGCAGGCCAGACAGCACTCGAATGTGTCAGGTAGTAAC
AGGCTGTCCCTGAAAGAAAGCAGTGTCTCAAGAGACTTGACACCTGGTGCTTCCCTATACAGCTGAAAAC
TGTGACTACACCCGAATGACAAATAACTCGCTCATTTATAGTTTATCACTGTCTAATTGCATATGAATAA
AGTATACCTTTGCAACC</dna_sequence>
        <protein_sequence>>gi|33468859|ref|NP_032363.1| interferon gamma [Mus musculus]
MNATHCILALQLFLMAVSGCYCHGTVIESLESLNNYFNSSGIDVEEKSLFLDIWRNWQKDGDMKILQSQI
ISFYLRLFEVLKDNQAISNNISVIESHLITTFFSNSKAKKDAFMSIAKFEVNNPQVQRQAFNELIRVVHQ
LLPESSLRKRKRSRC</protein_sequence>
        <phi_function></phi_function>
        <phi_annotation>IFN-gamma plays a critical role in Th1 type immune response. It is important for protection against infections by various viruses and intracellular bacteria.</phi_annotation>
        <phi_function2>Vaximmutor</phi_function2>
        <phi_annotation2>The experimental data demonstrated that three time vaccinations with BCG in BALB/c mice induced strong TB Ag-specific IFN-gamma immune responses in splenocytes  [Ref2101:Wang et al., 2009].</phi_annotation2>
    </gene>
	<gene gene_id="gene1106">
        <gene_name>Ighv1-9</gene_name>
        <strain>Mus musculus</strain>
        <vo_id></vo_id>
        <ncbi_gene_id>668478</ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id></ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq>AC073561</gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs></xrefs>
        <taxonomy_id>10090</taxonomy_id>
        <chromosome>12</chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start>114583568</gene_start>
        <gene_end>114583861</gene_end>
        <gene_strand></gene_strand>
        <protein_name>immunoglobulin heavy variable V1-9</protein_name>
        <protein_pi></protein_pi>
        <protein_weight></protein_weight>
        <protein_length></protein_length>
        <protein_note>Also known as Igg2a; Gm16697</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence>>gi|372099098:114583568-114583861 Mus musculus strain C57BL/6J chromosome 12, GRCm38 C57BL/6J
GTCTTGCACAGTAATAGATGGCAGAGTCCTCAGTTGTCAGGCTGCTGAGTTGCATGTAGGCTGTGTTGGA
GGATGTATCTGCAGTGAATGTGGCCTTGCCCTTGAACTTCTCATTGTAGTTAGTACTACCACTTCCAGGT
AAAATCTCTCCAATCCACTCAAGGCCATGTCCAGGCCTCTGCTTTACCCACTCTATCCAGTAGCCAGTGA
ATGTGTAGCCAGTAGCCTTGCAGGAAAGCTTCACTGAGGCCCCAGGCTTCATCAGCTCAGCTCCAGACTG
CTGCAGCTGAACCT</dna_sequence>
        <protein_sequence></protein_sequence>
        <phi_function>Vaximmutor</phi_function>
        <phi_annotation></phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene1121">
        <gene_name>Il2</gene_name>
        <strain>Mus musculus</strain>
        <vo_id></vo_id>
        <ncbi_gene_id>16183</ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>7110653</ncbi_protein_id>
        <gene_locus_tag>DN-144H19.3</gene_locus_tag>
        <gene_refseq>AF195954</gene_refseq>
        <protein_refseq>NP_032392</protein_refseq>
        <pdb_id></pdb_id>
        <xrefs></xrefs>
        <taxonomy_id>10090</taxonomy_id>
        <chromosome>3</chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start>37120712</gene_start>
        <gene_end>37125953</gene_end>
        <gene_strand>-</gene_strand>
        <protein_name>interleukin 2</protein_name>
        <protein_pi>4.63</protein_pi>
        <protein_weight>18506.61</protein_weight>
        <protein_length>169</protein_length>
        <protein_note>Also known as Il-2</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence>>gi|372099107:37120712-37125953 Mus musculus strain C57BL/6J chromosome 3, GRCm38 C57BL/6J
ATTTTTTTTTAGAGGAGAGCTTTATTTCTTGAAAACACTGATTAACATAGAGTTCACAGGAATAACTGAG
AAGTTATTTTAGCGCTTACTTTGTGCTGTCCTAAAAATGACAGACATCTGAGCTTATTTATATTTGAATC
ATCTAAATACTTTTATTAATGAGTCTACCTACACATGATATTTAACAATTCAATATAATAAATAATTTCA
GATAAATAGTTTAAAACATTTTTGAGCCCTTGGGGCTTACAAAAAGAATCTTTAAAGATCCATATTTATC
ATCTGAAGACTAGTAGTTACAAAAGATAGTAAACAATACATCCAAAAATAAATTAAAGTTAAATATTTAA
ATAAATAGAGAGCCTTATGTGTTGTAAGCAGGAGGTACATAGTTATTGAGGGCTTGTTGAGATGATGCTT
TGACAGAAGGCTATCCATCTCCTCAGAAAGTCCACCACAGTTGCTGACTCATCATCGAATTGGCACTCAA
ATGTGTTGTCAGAGCCCTAAAAAAGAATATAAAATTGTAGGCTAAGGTAGCTTACTTTGCATATAATTAT
TCTTCACGGAAGCTTTTAGGCATTTATTTTAACACTGGTTAAATATATTGAACATTCACATTTCTGAAAT
GATCACAATTATTGGGTTATGTTTTATTATGATATCAAATGGTAAAGCATAAAAAATAAAGCTCTCCAGA
GTTGATTACCAACGAGCATTTGATGGGAACACTGAACACTTCTGTAGAATTCAGTTGCTTGACCACTTTT
TCTCTGGTAAGTGTACACAGCTATGCATCAATTTAGGCTTCAGGAATGGAGAAATGATACTTGTTATATG
TTCTTTGCTAAATCTTAAGAGTCTATTATTCAATTCTTTCCCCCCCAAGTCAGAATGGGAACAACCCAGA
GTAGGTTAGGACAAGCATCTATTGGGGGAAATTTGGAGAATTTTGTTATAGATATACCTACCCTGATACC
AGTGTAGATGAATCACAAAGTTTGTACATGTATAAATATTATAAATTTGTTCTGTGGATTAGCTTTTTGA
AAGCTAACCCTCTTTGCTAAAGGAGATATTTTAATTCTGTTTTTAGGTGACAAGCTGAGAAGGAAATATT
TTGACAAATTTATGGGATGGCTTTTCCAAATCTGACTAATTCCTTGTAAGTCAAATGAGGCAGATTATTC
CTTTTAAATAAATACTCCTTTTCAAATAAGCTGCTGTGGTCTTATATACCCTCTTTACATAGCTACTTCA
ATATTCTAATGTCTTGAATTTTTCATTTTTAAAAATATGTGGCCCTTGAAACATTTTTCTAGTTCTCATG
TAGCTCTAAAGTTTGTACCATTCATTAGGGGTGAACTTTCTGATGTTGGCCATAGATTTTAGAGCATCCA
TCTTTGCATACGTAAGTACTCGATTTTAGAGCATCCATCTTAGCATACGTAAGTACTCACACCTTTCAAC
GTCTAGATGATGTGTATTTCAGCCTGCTTTAAAAACCTCAAATGGAAGCTGGGCAGTGGTGGTGCAGGCC
TTTAATCCCAGCACTTGGGAGGCAGAGGCAGGCGGATTTCTGAGTTCGAGGCCAGCCTGGTCTACAGAGT
GAGTTCCAGGACAGCCAGGGCTACACAGAGAAATCCTGTCTCAAAAAAACAAACAAACAAACAAACAAGA
AACAAACAAACAAAAAAAACAAAAACAAACAAAACAAAACCTCAAATGGAAACAGTGCACTGAAATGTGA
CTTTGGTTTGGAAAGGACTAGCCCACACCCTCTTGGAGGCTTGCTGCTACTGTCTCACCAGAGTCCATGA
TTCTTGTGCATTTAAAAACAAAGCTCTGCAGTGGGCTCTCCCCGTCCTGCTCTGTCCATTTTAATGGCTG
CCATTTTTGGAGAGAAATGTCTGTTTTTCTACCAATACCAGCACAACTTCTCTGGAAAAACTTTTCAGAT
AATTTTTTCTGATCTGATGAATGTAACACCAGCAAGAGTTGCTTGTTTCTTGTGGAATTCTACTCCGTGC
TTTCTCTCACATCCAGTTCTATGCTGGTGTGGAGGGAGCAGAGTGTTCATGTTCCCAGTTTCCTTGCAGG
TGATGGTAGGTGGAAATTCTAGCATCATCCTACAGTGGAAGGATTCACTTGCACAGTGACTTTAAACTTT
GGCTGACTAAATGCACAGAACCCATCAAAGACCAGAAATGGCAAGCCACTTAAAAATGCATTTCTTCTCT
ATTTTATTTCCAGATTAGCAAATAAAGCAACACCTTACCTTTAGTTTTACAACAGTTACTCTGATATTGC
TGATGAAATTCTCAGCATCTTCCAATTGAAAGCTTTTGCTTTGAGTCAAATCCAGAACATGCCGCAGAGG
TCCAAGTTCATCTTCTAGGCACTGAAGATCTTTCAATTCTGTGGCCTAGAGGAGTAATAAGCTTAACCAT
CAGCTCAGCTCACCACATACTGAAGAGCCAGAAAGTTAGTCTGCAGTCTCTCTAATCAAGAGAAGGCAGC
ACATAGCTTTTACCACTCCCTGTCCTCTGTAAAGGGGGACTGAGGTAATCGATGCCATAAATCTAGAAGA
GCAAGAGCTCACAACCATAAGGGTCACCTTGACTGTTAGGCCACTCTAGTGAGCTCTTCTGGCTTCATTA
GACTTTGTAAAAAGTCTGTGTTTCTCTACCAATGCATAGCACAAGTTCAGACTATTGTTCCAATCTACAA
AGAAATCTGCAAGGTTCACATTCTAATATCTAATCGCAGAGTTGAGAATCACAGAAGGGTAAGGGACAGG
AATCCTTGGATGCCAACTGTCATAGGCCTAAATCTTACAGATTAGGTTATCATGGCCCTGACTGAGGGGT
GTCAAGATAGCCAGGAAGACACATGTAATATTTTTTAAATTTATACTTCTCTGCAATTACTAAAGATGAG
TTTTTTAAAAACCCATATGTCAAGCTAGGAAGATGGCTTTTAAGGTAAAGGTACCTGCCACCAAACTTGA
TGATTTGAGTTCAATTGCAGTGACCCACCCACATTGTGGAAAGAATGGCCCAACTTTCATATTTCGTCTT
CTGACCTCCACAGTTACACTGTGATACACATGCACCTCCACACATACATACATACATACATACATACATA
CATACATACATACATACATACATACATAAAATGTAAAATCTATTTGTCCCAATGAAAAAAGTCATAACAT
TTTGGCAGAACACTTGGGAGAATTTTTCTGATCCATGTATGAAATAATGTTTAAATACATCATGCATACT
TACATACATATACAGGGAAAAAGGATATTGTCTAGCTCTATAGTACACTATGATTTCCATAAAGTCAGCT
GCTTTAAGTCTACAGTGAACTGTGTTATCTCCATTTTACCAAGTCTCACAATCAGTGTCTTTCCCACAAC
CACATGAACGGGGAGCAAGGGTGGCCCGGTCGGTCGGTCGCTCCTTTCATTAACCACAGCCTTTGAATTA
CATGCTTCTATTGTTTTTAAAATCTTACATACCGAATGCAGGTTAAATGAAAACATCAGCAGAATTTACC
ACATTACTCTTGTTTTCAATAATTATTTTAAAACTTAGATTTCTAGGAATTTCACCACTCTCTAAATTAA
CATGATCTCTGTTGTTTCTCTAACAATCCTTAGAGGAAGAGGTTTGACAAGATAACACGTAGTTCCTGAT
TGGTCTGCTATTGACCTTCCAACTTGTTATGGTGTGTCTTGGGTATTCAGTGTGGAGCTCCTTCCCTCAC
AGAACTCTCCAGTTTGTTACTGTGGGAGCTGAACATTATGTGACTGTAATTAAGCTGGAAGAGCAACTGG
GGCCTTTCTTTTTCATCTCCTGTAGAACAGCTAGAGGCAAAGTTCCCCTGACTCAATAGGAATGGGTCAA
CAGCTGCCTCTTTGTCCCCTTAGATCCCATTTTGCTCTAGGCTTGGATTTACTTGGGACAAGCTCTTTCT
AGGACCAAAGTTATCCATTCTCTTTTGACTTTCGGGACTAGAGCAAATTTCTACCCTTGCTGGAGTTCTA
AGAGCTTGTGTAAGCTGTTTTGTATCACACAACATTCTGCCTCCAAAGGAGACCAAAAAACCTTTCAATA
TTGAGAGATAGTATCATGTAGTAATATTACAGCTCTCTAGTTCCACTAGTTAAAAGAGACTGTATAAATC
CAAAATTGTTTTATACATCTCGGACTTCTTCTCTAGCACTAATAGTGTGTTTATGTGCTGTTGGCCAGAC
ACTGTTCTGAAACCTGACAAGTGATAAGCATAGCAATGATCATTTATGTAAGTGGGTGAATGAGCATAGA
CAACTTCCTGAGGCCATGAGAGCTAGGCCCTAGCAGGGCTGGACTCCACTGCAGATCATTGGCCCTAGAA
TCTTAACATTGGTTATGCTGCTCCTCAAAAATGCAGTCATAGGAATCATTCTTAAAACAGTAAAGTGTGT
GTAAAATGAGACCCTCTCAAGTCAATTTTTACATTTAAGAAGCTGAAATAATGCACCTCTCTCAAATATC
TGTAGGACAAGCATAAAACAGAAATCAACAGTCTTTAAATTATCCCAGCATCAAAATGCAATCATCTTGC
ATTTTCTTCTCATTCCCTTTCCCAACACATAAATACACAGGAAAAATGTAAAGAAAACCATTTAAAAGAA
GTACCATTGTCAAGATTTTTTTACAGAGAGATATCAGAGAAACTTATTTTCTTCAGATGAGGTACTATTC
ATCTGGTCACATGTTATTTACACGTTATACACATGTATGTTACTTTGAATTCATTAGAGCACCAGTTAAA
CACAGAAACTCACTCACCTGCTTGGGCAAGTAAAATTTGAAGGTGAGCATCCTGGGGAGTTTCAGGTTCC
TGTAATTCTGAGAAAGCGTAACACATTATTATTAAAGGTTATTAAACACAGCCTTTGGCAAGAAAGCTAA
AGGTATTGCCTATAGATGGGATGGCTGTGCACTTACCTCCATCCTGCTCAGGAGCTCCTGTAGGTCCATC
AACAGCTGCTCCAGGTGCTGCTGCTGCTGCTGCTGCTGCTGCTGCTGCTGCTGTGCTTCCGCTGTAGAGC
TTGAAGTGGAGCTTGAAGTGGGTGCGCTGTTGACAAGGAGCACAAGTGTCAATGTGACACAGGATGCGAG
CTGCATGCTGTACATGCCTGCAGGACTTGAGGTCACTGTGAGGAGTGATTAGCAAGGGTGAT</dna_sequence>
        <protein_sequence>>gi|7110653|ref|NP_032392.1| interleukin-2 precursor [Mus musculus]
MYSMQLASCVTLTLVLLVNSAPTSSSTSSSTAEAQQQQQQQQQQQQHLEQLLMDLQELLSRMENYRNLKL
PRMLTFKFYLPKQATELKDLQCLEDELGPLRHVLDLTQSKSFQLEDAENFISNIRVTVVKLKGSDNTFEC
QFDDESATVVDFLRRWIAFCQSIISTSPQ</protein_sequence>
        <phi_function>Vaximmutor</phi_function>
        <phi_annotation></phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene567">
        <gene_name>KMP-11</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011157</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>7579896</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:281087</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>KMP-11</protein_name>
        <protein_pi>7.09</protein_pi>
        <protein_weight>11872.82</protein_weight>
        <protein_length>150</protein_length>
        <protein_note>Kinetoplastid membrane protein 11; pfam03037</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAB33127.2 KMP-11 (kinetoplast) [Leishmania donovani]
MATTYEEFSAKLDRLDQEFNRKMQEQNAKFFADKPDESTLSPEMREHYEKFERMIKEHTEKFNKKMHEHS
EHFKQKFAELLEQQKAAQYPSK

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>KMP-11 DNA vaccination alone in an experimental BALB/c mice model showed significant potential in terms of resolution of splenic and hepatic parasite burden against virulent LD challenge.  KMP-11 DNA immunization significantly protects against L. donovani infection [Ref1167:Bhaumik et al., 2009].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene568">
        <gene_name>mspC</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011158</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>21954466</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:302875
GOA:Q8MM48
HSSP:1LML
InterPro:IPR001577
UniProtKB/TrEMBL:Q8MM48</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>GP63</protein_name>
        <protein_pi>6.49</protein_pi>
        <protein_weight>63738.41</protein_weight>
        <protein_length>691</protein_length>
        <protein_note>Leishmanolysin; cl19482</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>CAD42816.1 GP63 [Leishmania donovani]
MSVDSSSTHRHRSVAARLVRLAAAGAAVIAAVGTAAAWAHAGAVQHRCIHDAMHPRVRQSVARHHTAPGA
VSAVGLPYVTLDTAAAADRRPGSAPTVVRAANWGALRIAVSTEDLTDPAYHCARVGQRVNNHAGAIATCT
ADDILTDEKRDILVKYLIPQALQLHTERLKVRQVQDKWKVTDMVDEICGDFKVPPAHITDGLSNTDFVMY
VASVPSEEGVLAWATTCQVFSDGHPAVGVINIPAANIASRYDQLVTRVVTHEMAHALGFSGTFFTEILVV
TQMMNIRGKDFNVSVINSSTAVAKAREQYGCGTLEYLEIEDQGGAGSAGSHIKMRNAKDELMAPAAAAGY
YSALTMAIFQDLGFYQADFSKAEEMPWGRNAGCAFLSEKCMEQNITKWPAMFCNVSVDVVRCPTSRLMLG
TCGIRGYSTPFSPYWQYFTNISLGGYSPFLDYCPFVIGYGDGSCNQDASLATGFFGAFNVFSDAARCIDG
AFRPKNRTAADGYYAGLCANVRCDTATRTYSVQVCGSMDYVNCTPGLRVELSTVSSAFEEGGYITCPPYV
EVCQANVKGAKDFAGDSDSSSSAGDAADRAAMQRWNDRMAGLATAAMVLLGMVLSLMALVVVWLLLLTCP
WWCCKFGGLPT

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Study showed that cationic distearoyl phosphatidylcholine (DSPC) liposomes, when used as vaccine adjuvant with the immunodominant 63-kDa glycoprotein (gp63, mspC) of Leishmania donovani promastigotes, induced significant protection against progressive visceral leishmaniasis in susceptible BALB/c mice. gp63 used without adjuvant elicited partial protection but in association with liposomes exhibited marked resistance in both the livers and spleens of the mice challenged 10 days after the last vaccination [Ref1168:Bhowmick et al., 2008].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene571">
        <gene_name>NH</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011161</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>19697561</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:239117</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>nucleoside hydrolase</protein_name>
        <protein_pi>6.51</protein_pi>
        <protein_weight>30583.64</protein_weight>
        <protein_length>375</protein_length>
        <protein_note>nuc_hydro_IU_UC_XIUA: inosine-uridine preferring, xanthosine-inosine-uridine-adenosine-preferring and, uridine-cytidine preferring nucleoside hydrolases. Nucleoside hydrolases cleave the N-glycosidic bond in nucleosides generating ribose and the...; cd02651</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAG02281.1 nucleoside hydrolase [Leishmania donovani]
MPRKIILDCDPGIDDAVAIFLAHGNPEVELLAITTVVGNQTLEKVTRNARLVADVAGIVGVPVAAGCTKP
LVRGVRNASQIHGETGMGNVSYPPEFKTKLDGRHAVQLIIDLIMSHEPKTITLVPTGGLTNIAMAVRLEP
RIVDRVKEVVLMGGGYHTGNASPVAEFNVFVDPEAAHIVFNESWNVTMVGLDLTHQALATPAVQKRVKEV
GTKPAAFMLQILDFYTKVYEKERNTYATVHDPCAVAYVIDPTVMTTEQVPVDIELNGALTTGMTVADFRY
PRPKHCHTQVAVKLDFDKFWCLVIDALKRIGDPQ

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>Experimental infection of immunized BALB/c mice demonstrated that the VR1012-NH36 DNA vaccine derived from the nucleoside hydrolase gene (NH) of L. donovani induced an 88% reduction in L. chagasi parasite load and a 65% reduction in L. mexicana lesion size [Ref1171:Aguilar-Be et al., 2005].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene569">
        <gene_name>ORFF</gene_name>
        <strain>Leishmania donovani</strain>
        <vo_id>VO_0011159</vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>703122</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq></protein_refseq>
        <pdb_id></pdb_id>
        <xrefs></xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>unknown</protein_name>
        <protein_pi>5.32</protein_pi>
        <protein_weight>29594.74</protein_weight>
        <protein_length>334</protein_length>
        <protein_note></protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence></dna_sequence>
        <protein_sequence>>AAA96728.1 unknown [Leishmania donovani]
MQSDARELNPGRADFWEHFYGQEDGRLQQKELHHRKAREIVERGSLMNHYEWFMQYPMYEAALKACLRAV
PTVLSKDGATRILHTGCGNSDFCDHVEGLLSDLNPAPSSSSRTCEVLNVDICENIVTHLALHFPSRLYAV
GDCCDLHVSSSPSMPFSSNAAWYSRDTALRLRTVLQSSVDVVFDKGTADALLSSFAGVCNPNMEAYVGEA
LKVLRPGGLLFLISINSEDVLSPYVLSAGDGLKSFQLAYADVIELCAQDLRHLRVETLGSRYSCYGYAVV
ASAVAE

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>An expression plasmid encoding both p35 and p40 subunits of IL-12 when co-administered with a recombinant open-reading frame (rORFF) gene from the LD1 locus of Leishmania donovani induces significant protection with around 82% protection in both liver and spleen of BALB/c mice when challenged with L. donovani [Ref1169:Tewary et al., 2006].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene1073">
        <gene_name>P1</gene_name>
        <strain></strain>
        <vo_id></vo_id>
        <ncbi_gene_id></ncbi_gene_id>
        <ncbi_nucleotide_id>27465165</ncbi_nucleotide_id>
        <ncbi_protein_id>27465166</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq></gene_refseq>
        <protein_refseq>AAN60108.1</protein_refseq>
        <pdb_id></pdb_id>
        <xrefs>CDD:100109</xrefs>
        <taxonomy_id>5661</taxonomy_id>
        <chromosome></chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start></gene_start>
        <gene_end></gene_end>
        <gene_strand>?</gene_strand>
        <protein_name>ribosomal protein P1-like protein</protein_name>
        <protein_pi>4.09</protein_pi>
        <protein_weight>11317.016</protein_weight>
        <protein_length>182</protein_length>
        <protein_note>Ribosomal protein P1. This subfamily represents the eukaryotic large ribosomal protein P1. Eukaryotic P1 and P2 are functionally equivalent to the bacterial protein L7/L12, but are not homologous to L7/L12. P1 is located in the L12 stalk, with proteins...; cd05831</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence>>gi|27465165|gb|AY161269.1| Leishmania donovani ribosomal protein P1-like protein mRNA, complete cds
AATTCGTGTACTTTATTAGCACGTCATCACAGAGAACACCTTCCTTACGCACTGTCCATCATCGCCATGT
CCGCTGAGACCCTCGCGTGCACGTACGCCGCGCTCATGCTGAGTGACGCCGGCCTGCCCACCTCGGCCGA
GAACATCGCCGCGGCGGTGAAGGCGGCCGGCGTCGAGATGCGCCCCACCCTGCCCATCATCTTTGCCCGC
TTCCTGGAGAAGAAGTCCGTGGAGACGCTGATGGCGGCCGCCGCCGCGCAGGCCCCGACGGCCGCGTNCG
CCCCGTCTCCGGCGGCGGGCGCCGCCTCCGCTGCANCGGNCGGCGGCAAGGTGGAGGACAAGAAGAAGGA
CGAGCCTGAGGAAGAGGGCGACGACGACATGGGTTTTGGTCTGTTCGACTGAGCGCCCCGCATGATGACC
GGCATATGCGAGCACATGGTTGTTTGGCCTCATGTTCTGCAACACCCGAGCATGCCGTGAGCGCTGCCTC
TCTGCGTGCACATATATATATATGTGTGTGTGTGTGTGTGCGTGTGTTTCGCTGCTCTCTTTTTCTTTTC
GATTTTATTTACGTGTGCGTTACTCCTTCCTCCTGCGAAAAAAAAAAAAAAAAAAAA</dna_sequence>
        <protein_sequence>>AAN60108.1 ribosomal protein P1-like protein [Leishmania donovani]
MSAETLACTYAALMLSDAGLPTSAENIAAAVKAAGVEMRPTLPIIFARFLEKKSVETLMAAAAAQAPTAA
XAPSPAAGAASAAXXGGKVEDKKKDEPEEEGDDDMGFGLFD

</protein_sequence>
        <phi_function>Protective antigen</phi_function>
        <phi_annotation>DNA vaccine pVAX-P1 in a prime-boost mode was able to induce protection with reduced mortality, a significant (75.68%) decrease in splenic parasite burden and increased expression of Th1 type cytokines in immunized hamsters [Ref2053:Arora et al., 2011].</phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
	<gene gene_id="gene1137">
        <gene_name>TNF-alpha</gene_name>
        <strain>Mus musculus</strain>
        <vo_id></vo_id>
        <ncbi_gene_id>21926</ncbi_gene_id>
        <ncbi_nucleotide_id></ncbi_nucleotide_id>
        <ncbi_protein_id>7305585</ncbi_protein_id>
        <gene_locus_tag></gene_locus_tag>
        <gene_refseq>AB039224</gene_refseq>
        <protein_refseq>NP_038721</protein_refseq>
        <pdb_id></pdb_id>
        <xrefs></xrefs>
        <taxonomy_id>10090</taxonomy_id>
        <chromosome>17</chromosome>
        <segment></segment>
        <plasmid></plasmid>
        <gene_start>35199389</gene_start>
        <gene_end>35201995</gene_end>
        <gene_strand>-</gene_strand>
        <protein_name>tumor necrosis factor</protein_name>
        <protein_pi>4.75</protein_pi>
        <protein_weight>24010.47</protein_weight>
        <protein_length>235</protein_length>
        <protein_note>Also known as DIF; Tnfa; TNFSF2; Tnfsf1a; TNFalpha; TNF-alpha; MGC151434</protein_note>
        <protein_annotation></protein_annotation>
        <dna_sequence>>gi|372099093:35199389-35201995 Mus musculus strain C57BL/6J chromosome 17, GRCm38 C57BL/6J
CTTTATTTCTCTCAATGACCCGTAGGGCGATTACAGTCACGGCTCCCGTGGGGAGCAGAGGTTCAGTGAT
GTAGCGACAGCCTGGTCACCAAATCAGCGTTATTAAGACAATTGGGTTAGATAAATATTTTGTTTTAAAC
ATAAGCAAAAGAGGAGGCAACAAGGTAGAGAGGCCAGGTGGGGACAGCTCAGCTCCGTTTTCACAGAAAA
CATGTCTGTCTGAAGACAGCTTCCCACACTGGGTCCTCCAGGACACCCCGGCCTTCCAAATAAATACATT
CATAAGCAAATAAATAAATAATAAATAAATAATAAATAATAAGTGCAAATATAAATAGAGGGGGGCTGGC
TCTGTGAGGAAGGCTGTGCATTGCACCTCAGGGAAGAATCTGGAAAGGTCTGAAGGTAGGAAGGCCTGAG
ATCTTATCCAGCCTCATTCTGAGACAGAGGCAACCTGACCACTCTCCCTTTGCAGAACTCAGGAATGGAC
ATTCGAGGCTCCAGTGAATTCGGAAAGCCCATTTGAGTCCTTGATGGTGGTGCATGAGAGGCCCACAGTC
CAGGTCACTGTCCCAGCATCTTGTGTTTCTGAGTAGTTGTTGAAAGCTCTGAGCACAGAGTTGGACCCTG
AGCCATAATCCCCTTTCTAAGTTAGAAGGATACAGACTGGGGGCTCTGAGGAGTAGACAATAAAGGGGTC
AGAGTAAAGGGGTCAGAGTGGGGGCTGGGTAGAGAATGGATGAACACCCATTCCCTTCACAGAGCAATGA
CTCCAAAGTAGACCTGCCCGGACTCCGCAAAGTCTAAGTACTTGGGCAGATTGACCTCAGCGCTGAGTTG
GTCCCCCTTCTCCAGCTGGAAGACTCCTCCCAGGTATATGGGCTCATACCAGGGTTTGAGCTCAGCCCCC
TCAGGGGTGTCCTTGGGGCAGGGGCTCTTGACGGCAGAGAGGAGGTTGACTTTCTCCTGGTATGAGATAG
CAAATCGGCTGACGGTGTGGGTGAGGAGCACGTAGTCGGGGCAGCCTTGTCCCTTGAAGAGAACCTGGGA
GTAGACAAGGTACAACCCATCGGCTGGCACCACTAGTTGGTTGTCTTTGAGATCCATGCCGTTGGCCAGG
AGGGCGTTGGCGCGCTGGCTCAGCCACTCCAGCTGCTCCTCCACTTGGTGGTTTGCTGAGGGGGGGGGGG
AGGATTGAGTCAGTGTCACCCTCTTAGTTCACACTCCACATCCTGAGCCTCAGCAGCTACCCACACTTCA
CTTCCGGTTCCTGCACCCTCTGTCTTTCCACATCCCATTGGCTATGAGGTCCCGGGTGGCCCCCTGATGC
CTTGCTTTTGAGTCACTGCTCTGACTCTCACGTGCTGTCTCTAAGAGCTCTGTCTTTTCTCAGCCTGGCT
CGACACCCCTCAACCCGCCCCCCAAAATCATGCCCCTTCATTCTCAAGGCACATGTAAAGAAATCTTACC
TACGACGTGGGCTACAGGCTTGTCACTCGAATTTTGAGAAGATGATCCTGGAGGGGAAGAGACAAAGGCA
AGGATGAGCCTTTTAGGCTTCCCAGCAAGCATCTATGCACTTAGACCCCTTTCCTCCCAAACCAAAGCTT
TAAGTTCTCCCCCCACCCCATCTCATCCCATGCCTAACTGCCCTTCCTCCATCTTAAATTAAGAGAGAGG
TGTGGGAACACTTACTGAGTGTGAGGGTCTGGGCCATAGAACTGATGAGAGGGAGGCCATTTGGGAACTT
CTGTGTAGGAAAAGGAGGTTAGTTAAGACAGACTCACCCCAAAGGAGAAGCCTCCCGGCTGATTGCCCCG
CTTACAGTTCCTCTTTGCCCCACCCCACCCCCCAGCTTTGTGTTTTTCTTCTTCATTCATTCATCTGTCC
AACCCACGGCTTCTTTCTGCGGTGCCCTCTGTGCTTGATCTCCCGTTATCTCCCCTTCATCTTCCTCCTT
ATCTCTCATGCCTCTCTCATTTCTGTCTCTGAGTTTTATCTCTTGCTTATCCCCTCTTCCCCTGGCCACA
TCTTTCCAGATCTCTCCACGTGTGAACACACTTGTTCGTTCATTCATCTCTCTGTGCATCCGACGAAGGA
TGTTTAGTCAGCTGGACGCATGGGTCCGAGGTCCTGACTCTGTCCCCTCCACACTCTCCTCCACCTTGCC
CTGCCCATTAGCCCACTTCTTTCCCTCACACTGTCCTTCTTGCCCTCCTAACCCGTTTTGCTTGTGAGCG
AGAATAAGGGTTGCCCAGACACTCACCTCATCCCTTTGGGGACCGATCACCCCGAAGTTCAGTAGACAGA
AGAGCGTGGTGGCCCCTGCCACAAGCAGGAATGAGAAGAGGCTGAGACATAGGCACCGCCTGGAGTTCTG
GAAGCCCCCCATCTTTTGGGGGAGTGCCTCTTCTGCCAGTTCCACGTCGCGGATCATGCTTTCTGTGCTC
ATGGTGTCTTTTCTGGAGGGAGATGTGGCGCCTTGGGCCAGTGAGTGAAAGGGACAGAACCTGCCTGGTT
GGCTGCTTGCTTTTCTGGGAGCTATTTCCAAGATGTTCTGGAGTTTCTGTTCTCCCTCCTGGCTAGTCCC
TTGCTGTCCTCGCTGAG</dna_sequence>
        <protein_sequence>>gi|7305585|ref|NP_038721.1| tumor necrosis factor [Mus musculus]
MSTESMIRDVELAEEALPQKMGGFQNSRRCLCLSLFSFLLVAGATTLFCLLNFGVIGPQRDEKFPNGLPL
ISSMAQTLTLRSSSQNSSDKPVAHVVANHQVEEQLEWLSQRANALLANGMDLKDNQLVVPADGLYLVYSQ
VLFKGQGCPDYVLLTHTVSRFAISYQEKVNLLSAVKSPCPKDTPEGAELKPWYEPIYLGGVFQLEKGDQL
SAEVNLPKYLDFAESGQVYFGVIAL</protein_sequence>
        <phi_function>Vaximmutor</phi_function>
        <phi_annotation></phi_annotation>
        <phi_function2></phi_function2>
        <phi_annotation2></phi_annotation2>
    </gene>
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		<title>Co-administration of IL-12 DNA with rORFF antigen confers long-term protective immunity against experimental visceral leishmaniaisis</title>
		<year>2006</year>
		<volume>24</volume>
		<issue>13</issue>
		<pages>2409-2416</pages>
		<journal_book_name>Vaccine</journal_book_name>
		<publisher></publisher>
		<publisher_location></publisher_location>
		<book_editors></book_editors>
		<isbn></isbn>
		<university></university>
		<university_location></university_location>
		<degree></degree>
		<url></url>
		<file_name></file_name>
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		<title>Leishmania donovani</title>
		<year></year>
		<volume></volume>
		<issue></issue>
		<pages></pages>
		<journal_book_name></journal_book_name>
		<publisher></publisher>
		<publisher_location></publisher_location>
		<book_editors></book_editors>
		<isbn></isbn>
		<university></university>
		<university_location></university_location>
		<degree></degree>
		<url>http://www.wrongdiagnosis.com/medical/leishmania_donovani.htm</url>
		<file_name></file_name>
	</reference>
</VIOLIN>


