mhurhangee/patent-ind-claim-en huggingface dataset:
A recombinant Ralstonia eutropha, wherein, a promoter for upregulating a phaJ gene is introduced into the genome of the recombinant Ralstonia eutropha, the phaJ gene is a phaJ4b gene, and sequence of the promoter for upregulating the phaJ gene is a phaJ43 promoter sequence of SEQ ID NO: 3; original genes phaC and proC in the genome of the recombinant Ralstonia eutropha are inactivated, sequence of the original phaC gene is represented by SEQ ID NO: 1, sequence of the original proC gene is represented by SEQ ID NO: 2; a plasmid stably existing in the Ralstonia eutropha is also introduced into the recombinant Ralstonia eutropha, the plasmid is loaded with an introduced phaC mutant gene and an introduced proC gene, wherein the sequence of the introduced phaC mutant gene is represented by SEQ ID NO: 5, the expression of the introduced phaC mutant gene enables the recombinant Ralstonia eutropha to synthesize 3-hydroxybutyrate-co-3-hydroxyhexanoate, sequence of the introduced proC gene is represented by SEQ ID NO: 4; an original strain of the recombinant Ralstonia eutropha is Ralstonia eutropha Re0980, and the deposit number for the Ralstonia eutropha Re0980 is GDMCC No: 62177.
A method for producing a color secure identification document, comprising: etching identity information on the substrate of the data surface of document by laser, and the identity information comprises a black-and-white image and text information; printing a color image on the black-and-white image with color ink and making the color image and the black-and-white image align and coincide with each other to form a personalized data surface; and printing a transparent protective layer on the upper surface of the personalized data surface with a transparent varnish, the protective layer covering the color image, wherein when the transparent protective layer is printed, a printing thickness of a predetermined region in the transparent protective layer is increased or reduced, so that a transparent anti-counterfeiting mark with a predetermined graphic and/or text is formed in the predetermined region, wherein: before the transparent protective layer is printed on the upper surface of the personalized data surface, the method comprises: printing a first anti-counterfeiting mark on the personalized data surface by using optically variable, liquid crystal ink ; and changing the color of the first anti-counterfeiting mark and curing the mark sequentially, so that an optically variable mark is generated on the personalized data surface. etching identity information on the substrate of the data surface of document by laser, and the identity information comprises a black-and-white image and text information; printing a color image on the black-and-white image with color ink and making the color image and the black-and-white image align and coincide with each other to form a personalized data surface; and printing a transparent protective layer on the upper surface of the personalized data surface with a transparent varnish, the protective layer covering the color image, wherein when the transparent protective layer is printed, a printing thickness of a predetermined region in the transparent protective layer is increased or reduced, so that a transparent anti-counterfeiting mark with a predetermined graphic and/or text is formed in the predetermined region, wherein: before the transparent protective layer is printed on the upper surface of the personalized data surface, the method comprises: printing a first anti-counterfeiting mark on the personalized data surface by using optically variable, liquid crystal ink ; and changing the color of the first anti-counterfeiting mark and curing the mark sequentially, so that an optically variable mark is generated on the personalized data surface. printing a first anti-counterfeiting mark on the personalized data surface by using optically variable, liquid crystal ink ; and changing the color of the first anti-counterfeiting mark and curing the mark sequentially, so that an optically variable mark is generated on the personalized data surface.
A compound represented by: or a pharmaceutically acceptable salt and/or a stereoisomer thereof.
Medical device , preferably a dialysis device for performing a haemodialysis and/or haemofiltration and/or haemodiafiltration, comprising a first functional module (CPU1) and a second functional module (CPU2), wherein an operating hours counter for counting the operating hours is provided in the first functional module (CPU1), and the first functional module (CPU1) is configured to store an operating hours value determined by the operating hours counter in a first storage (M1) of the first functional module (CPU1), wherein a second storage (M2) is provided in the second functional module (CPU2), characterised in that the second functional module (CPU2) is configured to store the operating hours value determined by the operating hours counter of the first functional module (CPU1) in the second storage (M2), wherein the first functional module (CPU1) is a main control module and the second functional module (CPU2) is a monitoring system, and the first functional module (CPU1) and the second functional model (CPU2) each have an individual microprocessor.
A method for locally restoring a role at an acceleration component included in a group of inter-operating acceleration components, each acceleration component in the group comprising a hardware component configured to perform a computing function and each having a monitor and a role, wherein a role comprises a functionality for use in providing a computing service and has a defined legitimate behavior associated therewith, and wherein roles at each acceleration component are linked together to compose a graph for providing a computing service, and wherein the hardware component is in a hardware acceleration plane, the method comprising: in a monitor of an acceleration component, detecting an error in a role at the acceleration component by comparing actual behavior of the role with the defined legitimate behavior for the role; pausing input to the role; locally sending a reset command to the role within the acceleration component ; receiving an acknowledgment from the role , the acknowledgement indicating that the role was successfully restarted; and enabling input to the role in response to receiving the acknowledgment .
A zero turning radius mower , comprising: an internal combustion engine mounted transversely on a pair of longitudinal frame members behind an operator seat and a pair of rear drive wheels , the engine rotating a flywheel on a horizontal axis perpendicular to the longitudinal frame members ; a gearbox mounted to one of the longitudinal frame members ; the gearbox having a horizontal input shaft driven by the engine and a vertical output shaft engaging a rubber belt ; and a vent passage through the vertical output shaft , and a rotary fan having a central hub mounted to the vertical output shaft . an internal combustion engine mounted transversely on a pair of longitudinal frame members behind an operator seat and a pair of rear drive wheels , the engine rotating a flywheel on a horizontal axis perpendicular to the longitudinal frame members ; a gearbox mounted to one of the longitudinal frame members ; the gearbox having a horizontal input shaft driven by the engine and a vertical output shaft engaging a rubber belt ; and a vent passage through the vertical output shaft , and a rotary fan having a central hub mounted to the vertical output shaft .
A method for making an elastomeric laminate, the method comprising the steps of: providing elastic strands wound onto a beam , wherein the elastic strands comprise a spin finish ; rotating the beam to unwind the elastic strands from the beam ; advancing the elastic strands from the rotating beam ; stretching the elastic strands ; bonding discrete lengths of the stretched elastic strands with and between a first substrate and a second substrate with discrete first bonds arranged intermittently along a machine direction; and applying second bonds extending in the machine direction between consecutive first bonds to bond the first and second substrates directly to each other, wherein the second bonds are separated from each other in a cross direction by at least one elastic strand . providing elastic strands wound onto a beam , wherein the elastic strands comprise a spin finish ; rotating the beam to unwind the elastic strands from the beam ; advancing the elastic strands from the rotating beam ; stretching the elastic strands ; bonding discrete lengths of the stretched elastic strands with and between a first substrate and a second substrate with discrete first bonds arranged intermittently along a machine direction; and applying second bonds extending in the machine direction between consecutive first bonds to bond the first and second substrates directly to each other, wherein the second bonds are separated from each other in a cross direction by at least one elastic strand .
A centering body which can provide a spider body having spider arms to be embedded in a manner to rotate in the double cardan joints , the centering body comprising connection flanges with an extension integrated with said centering body , bearing bushing housings which are formed for embedding the spider arms to said connection flanges , the centering body being characterized in mounting recesses formed in a curved surface extending between said connection flanges in the area of the bearing bushing housings , whereby the mounting recesses allow for mounting in the position of the spider body and spider arms to said bearing bushing housings .
A water heating apparatus comprising: a water inlet port and a hot water supply connection water outlet port ; one burner assembly comprising a burner disposed within one combustion chamber housing ; at least two heat exchangers operated in parallel, each of the at least two heat exchangers fluidly coupled to said water inlet port , each of the heat exchangers having an outer housing and disposed within a plurality of heat exchange tubes and a portion through which a heated water exits each of the at least two heat exchangers ; wherein a water jacket is defined by the area between an outer containment vessel and the combustion chamber housing ; wherein a hot combustion gas from the burner assembly flows through each of the at least two heat exchangers to heat the cold water from the water inlet port to a heated water; and wherein the water heating apparatus is arranged such that the heated water flows out of each of the at least two heat exchangers through the portion of each of the at least two heat exchangers into the water jacket, where the heated water flowed into the water jacket is further heated by the combustion chamber housing and the further heated water exits the water heating apparatus at the water outlet port . a water inlet port and a hot water supply connection water outlet port ; one burner assembly comprising a burner disposed within one combustion chamber housing ; at least two heat exchangers operated in parallel, each of the at least two heat exchangers fluidly coupled to said water inlet port , each of the heat exchangers having an outer housing and disposed within a plurality of heat exchange tubes and a portion through which a heated water exits each of the at least two heat exchangers ; wherein a water jacket is defined by the area between an outer containment vessel and the combustion chamber housing ; wherein a hot combustion gas from the burner assembly flows through each of the at least two heat exchangers to heat the cold water from the water inlet port to a heated water; and wherein the water heating apparatus is arranged such that the heated water flows out of each of the at least two heat exchangers through the portion of each of the at least two heat exchangers into the water jacket, where the heated water flowed into the water jacket is further heated by the combustion chamber housing and the further heated water exits the water heating apparatus at the water outlet port .
Method for the manufacture of graphene oxide from kish graphite comprising: A. The provision of kish graphite, B. A pre-treatment step of said kish graphite comprising the following successive sub-steps: i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and C. An oxidation step of the pre-treated kish-graphite obtained after step B) in order to obtain graphene oxide. A. The provision of kish graphite, B. A pre-treatment step of said kish graphite comprising the following successive sub-steps: i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and i. A sieving step wherein the kish graphite is classified by size as follows: a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, a) Kish graphite having a size below 50μm, b) Kish graphite having a size above or equal to 50μm, the fraction a) of kish graphite having a size below 50 μm being removed, ii. A flotation step with the fraction b) of kish graphite having a size above or equal to 50μm, iii. An acid leaching step wherein an acid is added so that the ratio in weight (acid amount)/(kish graphite amount) is between 0.25 and 1.0, iv. Optionally, the kish graphite is washed and dried and C. An oxidation step of the pre-treated kish-graphite obtained after step B) in order to obtain graphene oxide.
A recliner chair that is convertible to a bed having a first frame , a second frame , a backrest , and a leg rest , wherein the first frame comprises a first set of supports (110a-110b) spaced apart from each other and a seat that is supported on the first set of supports(110a-110b), wherein the second frame comprises a second set of supports (114a-114b) spaced apart from each other, wherein the first frame and the second frame are telescopically engaged with each other, a first end of the backrest is attached to a rear end of the first frame , wherein the backrest is adjustable between a substantially vertical position and a substantially horizontal position, and a first end of the leg rest is attached to a front end of the first frame , wherein the leg rest is adjustable between the substantially vertical position and the substantially horizontal position, characterized in that , the recliner chair further comprises a first scissor lift mechanism and a second scissor lift mechanism , wherein first ends of the first scissor lift mechanism and the second scissor lift mechanism are attached to the backrest : , and second ends of the first scissor lift mechanism and the second scissor lift mechanism are attached to the first and second frames , such that the first and second scissor lift mechanisms automatically adjust to support the backrest in a plurality of positions between the substantially horizontal position and the substantially vertical position while the second frame is moved with respect to the first frame .
Conveyor module , comprising: a module body , comprising: a pair of first link ends extending in a first direction of travel, each first link end having a first transverse opening therethrough; a second link end extending in a second direction of travel opposite the first direction, the second link end having a second transverse opening therethrough; a pin configured to be received in the first transverse openings of the module body , the pin having a shaft , characterized in that the pin has a groove around at least a portion of a circumference of the shaft and in that the conveyor module further comprises a clip configured for insertion into a notch of at least one of the first link ends , the clip having a tab configured to engage the groove of the pin to prevent transverse movement of the pin . a module body , comprising: a pair of first link ends extending in a first direction of travel, each first link end having a first transverse opening therethrough; a second link end extending in a second direction of travel opposite the first direction, the second link end having a second transverse opening therethrough; a pair of first link ends extending in a first direction of travel, each first link end having a first transverse opening therethrough; a second link end extending in a second direction of travel opposite the first direction, the second link end having a second transverse opening therethrough; a pin configured to be received in the first transverse openings of the module body , the pin having a shaft ,
A method of estimation, by means of an electronic processing device , of the quality of a heart rate signal (OUT) delivered by a heart rate sensor during an acquisition phase (T acq ) of duration W, said signal (OUT) being delivered rid of possible outliers and comprising a sequence of N samples IBI i each having a value representative of a duration between two successive heartbeats detected by the sensor , N being an integer greater than or equal to 2 and i being an integer in the range from 1 to N, the method comprising a step of calculation, by means of the electronic processing device , of a ratio or a difference between duration W of the acquisition phase (T acq ) and the sum of the values of the samples IBI i of the signal (OUT), and a step of delivery of a default indicator L which is a function of this ratio or of this difference.
A positioning and tensioning device for positioning and tensioning at least one wire end (12a-12d) projecting from a machine element to which the positioning and tensioning device is relatively movable in a direction of a wire end extension for further processing in the course of manufacturing the machine element of an electrical machine, comprising: a catching device for catching, positioning, tensioning and fixing the at least one wire end (12a-12d) or at least for catching and pre-positioning the at least one wire end (12a-12d) for the purpose of fixing and tensioning the thus pre-positioned at least one wire end (12a-12d) by a fixing and tensioning device , wherein the catching device comprises a first element having a first recess and a second element having a second recess , characterized in that the catching device comprises at least one inclined guide for positioning the at least one wire end (12a-12d) or for positioning several wire ends (12a-12d) relative to each other, wherein the elements are movable relative to each other in a circumferential direction or a radial direction of the positioning and tensioning device , wherein the first and the second recess at least partially overlap each other in such a way that the at least one wire end is receivable within the first and second recesses , and edgings of the first and second recesses approach or move away from one another in the course of the relative movement in the circumferential direction or radial direction, wherein at least one edging on at least one of the first and second recesses extends at least partially obliquely between a narrower region and a wider region of the at least one recess to form the at least one oblique guide . a catching device for catching, positioning, tensioning and fixing the at least one wire end (12a-12d) or at least for catching and pre-positioning the at least one wire end (12a-12d) for the purpose of fixing and tensioning the thus pre-positioned at least one wire end (12a-12d) by a fixing and tensioning device , wherein the catching device comprises a first element having a first recess and a second element having a second recess , characterized in that the catching device comprises at least one inclined guide for positioning the at least one wire end (12a-12d) or for positioning several wire ends (12a-12d) relative to each other, wherein the elements are movable relative to each other in a circumferential direction or a radial direction of the positioning and tensioning device , wherein the first and the second recess at least partially overlap each other in such a way that the at least one wire end is receivable within the first and second recesses , and edgings of the first and second recesses approach or move away from one another in the course of the relative movement in the circumferential direction or radial direction, wherein at least one edging on at least one of the first and second recesses extends at least partially obliquely between a narrower region and a wider region of the at least one recess to form the at least one oblique guide .
A process for synthesis of lactones, said process comprising: (a) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 4; (b) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 4 in a host cell to obtain recombinant polypeptide peroxygenase of SEQ ID No.6 wherein the host cell is selected from the group consisting of E.coli BL21 or E.coli Rosetta; (c) catalyzing conversion of unsaturated fatty acids to epoxy fatty acids in presence of the recombinant polypeptide peroxygenase of SEQ ID No. 6 of step (b) to obtain epoxy fatty acids; (d) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 1; (e) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 1 in a host cell to obtain recombinant polypeptide epoxide hydrolase 2 of SEQ ID No.3; (f) catalyzing conversion of the epoxy fatty acids from step (c) to di-hydroxy fatty acids in presence of the recombinant polypeptide epoxide hydrolase 2 of SEQ ID No. 3 of step (e) to obtain di-hydroxy fatty acids; and (g) subjecting the di-hydroxy fatty acids of step (f) to multiple cycles of ω and β oxidation to obtain the lactones, wherein the lactones are selected from the group consisting of δ-valerolactone, γ-hexalactone, and δ-hexalactone. (a) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 4; (b) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 4 in a host cell to obtain recombinant polypeptide peroxygenase of SEQ ID No.6 wherein the host cell is selected from the group consisting of E.coli BL21 or E.coli Rosetta; (c) catalyzing conversion of unsaturated fatty acids to epoxy fatty acids in presence of the recombinant polypeptide peroxygenase of SEQ ID No. 6 of step (b) to obtain epoxy fatty acids; (d) synthesizing polynucleotide sequence as set forth in SEQ ID No.: 1; (e) expressing a recombinant construct carrying said polynucleotide sequence of SEQ ID No. 1 in a host cell to obtain recombinant polypeptide epoxide hydrolase 2 of SEQ ID No.3; (f) catalyzing conversion of the epoxy fatty acids from step (c) to di-hydroxy fatty acids in presence of the recombinant polypeptide epoxide hydrolase 2 of SEQ ID No. 3 of step (e) to obtain di-hydroxy fatty acids; and (g) subjecting the di-hydroxy fatty acids of step (f) to multiple cycles of ω and β oxidation to obtain the lactones,