mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making an implant component for a joint of a patient, comprising: obtaining an anatomical dimension associated with the patient; deriving information regarding an anatomical feature of the joint based, at least in part, on the anatomical dimension and an anatomical relationship correlation; designing an implant component based, at least in part, on the derived information regarding the anatomical feature; measuring the anatomical feature to determine measured information regarding the anatomical feature; comparing the measured information regarding the anatomical feature to the derived information regarding the anatomical feature; wherein if there is substantially no difference between the measured information regarding the anatomical feature and the derived information regarding the anatomical feature, designing the implant component is based, at least in part, on at least one of the measured information regarding the anatomical feature and the derived information regarding the anatomical feature, and if the measured information regarding the anatomical feature is substantially different from the derived information regarding the anatomical feature, the method further comprises providing an alert to the designer of the implant. obtaining an anatomical dimension associated with the patient; deriving information regarding an anatomical feature of the joint based, at least in part, on the anatomical dimension and an anatomical relationship correlation; designing an implant component based, at least in part, on the derived information regarding the anatomical feature; measuring the anatomical feature to determine measured information regarding the anatomical feature; comparing the measured information regarding the anatomical feature to the derived information regarding the anatomical feature; wherein if there is substantially no difference between the measured information regarding the anatomical feature and the derived information regarding the anatomical feature, designing the implant component is based, at least in part, on at least one of the measured information regarding the anatomical feature and the derived information regarding the anatomical feature, and if the measured information regarding the anatomical feature is substantially different from the derived information regarding the anatomical feature, the method further comprises providing an alert to the designer of the implant.
A method of generating tool path data for use in additive manufacturing, the method comprising: providing object design data in which at least a part of the object is represented by a line ; discretizing the line to generate a first layer point that lies within a first build layer and a second layer point that lies within a second build layer ; projecting the second layer point to a projected layer point that lies within the first build layer ; and connecting the first layer point to the projected layer point to provide tool path data for the first build layer . providing object design data in which at least a part of the object is represented by a line ; discretizing the line to generate a first layer point that lies within a first build layer and a second layer point that lies within a second build layer ; projecting the second layer point to a projected layer point that lies within the first build layer ; and connecting the first layer point to the projected layer point to provide tool path data for the first build layer .
An anti-insect barrier for protecting an element , in particular a structure or a trunk or branch of a tree or shrub, wherein the barrier comprises: a power supply , a control system , an elongated strip made of an electrically insulating material, wherein the strip comprises a first surface configured to be placed against an outer surface of the element , and a second surface on a side of the strip opposite to the first surface, a first electrical conductor and a second electrical conductor , wherein said first electrical conductor and said second electrical conductor arranged on the second surface of the strip , are spaced apart and extending along a longitudinal direction (L) of said strip , wherein a distance (d) between the first and second electrical conductor is configured so that an insect that attempts to traverse said anti-insect barrier interconnects the first and second electrical conductor , and wherein the first electrical conductor and the second electrical conductor are each connected to the power supply via the control system , wherein the control system is configured for temporarily applying a voltage difference between the first and the second electrical conductor , characterized in that the first electrical conductor and the second electrical conductor at least partially comprise elastic conductors. a power supply , a control system , an elongated strip made of an electrically insulating material, wherein the strip comprises a first surface configured to be placed against an outer surface of the element , and a second surface on a side of the strip opposite to the first surface, a first electrical conductor and a second electrical conductor , wherein said first electrical conductor and said second electrical conductor arranged on the second surface of the strip , are spaced apart and extending along a longitudinal direction (L) of said strip , wherein a distance (d) between the first and second electrical conductor is configured so that an insect that attempts to traverse said anti-insect barrier interconnects the first and second electrical conductor , and wherein the first electrical conductor and the second electrical conductor are each connected to the power supply via the control system , wherein the control system is configured for temporarily applying a voltage difference between the first and the second electrical conductor , characterized in that the first electrical conductor and the second electrical conductor at least partially comprise elastic conductors.
Elastomeric composition comprising, based upon parts by weight per 100 parts by weight of rubber (phr): (A) 100 phr of a blend of rubbers comprising at least 20 wt% of an isoprene polymer; (B) from 0 to 30 phr of silica; (C) from 0 to 50 phr of amorphous carbon black; (D) from 1 to 40 phr of graphene, characterized in that said graphene comprises nanoplatelets of graphene, wherein at least 90% of said nanoplatelets have a lateral size (x, y) measured by scanning electron microscope (SEM) from 50 to 50000 nm and a thickness (z) measured by atomic force microscope (AFM) from 0.34 to 50 nm, wherein the lateral size is always greater than the thickness (x, y > z), and wherein the C/O ratio is ≥ 100:1 measured by elemental analysis. (A) 100 phr of a blend of rubbers comprising at least 20 wt% of an isoprene polymer; (B) from 0 to 30 phr of silica; (C) from 0 to 50 phr of amorphous carbon black; (D) from 1 to 40 phr of graphene,
Body structural element of a motor vehicle comprising a body element , a strike plate , a support plate which is supported on the body element via a first face , and is supported on the strike plate via a second face , a first means for locking the support plate in position on the body element, and a second means for locking the strike plate in position on the support plate, the body structural element comprising a first slide connection along a first axis (Y) between the body element and the support plate, and a second slide connection along a second axis (Z) between the support plate and the strike plate, characterized in that the support plate comprises: - a first guide stud projecting from the first face of the support plate, and cooperating with a first guide slit disposed in the body element; and - a second guide stud projecting from the second face of the support plate, and cooperating with a second guide slit disposed in the strike plate. - a first guide stud projecting from the first face of the support plate, and cooperating with a first guide slit disposed in the body element; and - a second guide stud projecting from the second face of the support plate, and cooperating with a second guide slit disposed in the strike plate.
A method to prepare a catheter locking formulation, comprising: in a first step, dissolving trimethoprim in propylene glycol at a temperature between 50° C and 55° C ; after solubilizing trimethoprim in propylene glycol, adding phosphate buffered saline to the trimethoprim / propylene glycol solution at a temperature greater than room temperature; adding EDTA Calcium Disodium Hydrate to the solution of trimethoprim / propylene glycol / phosphate buffered saline solution at a temperature greater than room temperature; adding glycerin to the solution of EDTA Calcium Disodium Hydrate / trimethoprim / propylene glycol / phosphate buffered saline solution at a temperature greater than room temperature and in a final step, adding absolute ethanol at about room temperature to the solution of trimethoprim, propylene glycol, EDTA Calcium Disodium Hydrate, phosphate buffered saline, and glycerin. in a first step, dissolving trimethoprim in propylene glycol at a temperature between 50° C and 55° C ; after solubilizing trimethoprim in propylene glycol, adding phosphate buffered saline to the trimethoprim / propylene glycol solution at a temperature greater than room temperature; adding EDTA Calcium Disodium Hydrate to the solution of trimethoprim / propylene glycol / phosphate buffered saline solution at a temperature greater than room temperature; adding glycerin to the solution of EDTA Calcium Disodium Hydrate / trimethoprim / propylene glycol / phosphate buffered saline solution at a temperature greater than room temperature and in a final step, adding absolute ethanol at about room temperature to the solution of trimethoprim, propylene glycol, EDTA Calcium Disodium Hydrate, phosphate buffered saline, and glycerin.
A manufacturing method of a liquid jet head comprising: (S1) a groove formation step of forming ejection grooves and non-ejection grooves alternately in a reference direction (K) in an upper surface (U1) of an actuator substrate ; (S2) a cover plate processing step of forming a recessed portion in the upper surface (U2) of a cover plate and slits penetrating from a bottom surface of the recessed portion to a lower surface (L2) of the cover plate; (S3) an electrode formation step of forming conductive films inside the recessed portion, inside the slits, on the lower surface of the cover plate in the vicinities of the slits, on the upper surface of the actuator substrate in the vicinities of end portions of the ejection grooves, and on side surfaces of the ejection grooves and non-ejection grooves; and (S4) a substrate joining step of joining the lower surface of the cover plate to the upper surface of the actuator substrate so as to communicate the slits with the ejection grooves as well as of connecting electrically the conductive films formed in the vicinities of the slits to the conductive films in the vicinities of the end portions of the ejection grooves. (S1) a groove formation step of forming ejection grooves and non-ejection grooves alternately in a reference direction (K) in an upper surface (U1) of an actuator substrate ; (S2) a cover plate processing step of forming a recessed portion in the upper surface (U2) of a cover plate and slits penetrating from a bottom surface of the recessed portion to a lower surface (L2) of the cover plate; (S3) an electrode formation step of forming conductive films inside the recessed portion, inside the slits, on the lower surface of the cover plate in the vicinities of the slits, on the upper surface of the actuator substrate in the vicinities of end portions of the ejection grooves, and on side surfaces of the ejection grooves and non-ejection grooves; and (S4) a substrate joining step of joining the lower surface of the cover plate to the upper surface of the actuator substrate so as to communicate the slits with the ejection grooves as well as of connecting electrically the conductive films formed in the vicinities of the slits to the conductive films in the vicinities of the end portions of the ejection grooves.
A method for mediating between a plurality of storage systems synchronously replicating a dataset, the method comprising: requesting, by a first storage system in response to detecting a communication fault in the data communications link between the first storage system and a second storage system , mediation from a mediation service , wherein, prior to requesting mediation, the first storage system waits for a predefined first amount of time, and wherein the first storage system and the second storage system are included in the plurality of storage systems; requesting, by the second storage system in response to detecting the communication fault, mediation from the mediation service , wherein, prior to requesting mediation, the second storage system waits for a predefined second amount of time, and the first storage system is designated as a preferred storage system based on the first amount of time being less than the second amount of time; receiving, by the first storage system , an indication from the mediation service that the first storage system won mediation over the second storage system ; and responsive to receiving the indication from the mediation service , processing, by the first storage system , data storage requests directed to the dataset that is synchronously replicated across the first storage system and the second storage system ; and detaching, by the first storage system , the second storage system with which communication was lost, from an in-sync list that specifies the plurality of storage systems that are synchronously replicating the dataset . requesting, by a first storage system in response to detecting a communication fault in the data communications link between the first storage system and a second storage system , mediation from a mediation service , wherein, prior to requesting mediation, the first storage system waits for a predefined first amount of time, and wherein the first storage system and the second storage system are included in the plurality of storage systems; requesting, by the second storage system in response to detecting the communication fault, mediation from the mediation service , wherein, prior to requesting mediation, the second storage system waits for a predefined second amount of time, and the first storage system is designated as a preferred storage system based on the first amount of time being less than the second amount of time; receiving, by the first storage system , an indication from the mediation service that the first storage system won mediation over the second storage system ; and responsive to receiving the indication from the mediation service , processing, by the first storage system , data storage requests directed to the dataset that is synchronously replicated across the first storage system and the second storage system ; and detaching, by the first storage system , the second storage system with which communication was lost, from an in-sync list that specifies the plurality of storage systems that are synchronously replicating the dataset .
A method for preparing eye drops of cyclosporin A, the concentration of which in the eye drops is between 1 mg/ml and 40 mg/ml, in the form of an emulsion, a microemulsion or a lipophilic/hydrophilic micellar solution of which the lipophilic, and therefore oily, phase contains cyclosporin A, characterised in that the method comprises at least the steps of: a) eliminating at least 99 wt.% of the ethanol contained in the oily solution of cyclosporin A, under a flow of nitrogen under a pressure of 0.5 bar, at a temperature between 2°C and 45°C and for a period between 0.25 h and 24 h, b) diluting the concentrate obtained in step a) in an aqueous solution, c) forming an emulsion, a microemulsion or a micellar solution of which the aqueous phase makes up at least 75% of the final emulsion, microemulsion or micellar solution, by mixing, under stirring, the concentrated oily solution obtained in step a) with the diluted aqueous solution obtained in step b), d) packaging, in a sterile manner, the obtained eye drops in packaging that is suitable for ophthalmic use. a) eliminating at least 99 wt.% of the ethanol contained in the oily solution of cyclosporin A, under a flow of nitrogen under a pressure of 0.5 bar, at a temperature between 2°C and 45°C and for a period between 0.25 h and 24 h, b) diluting the concentrate obtained in step a) in an aqueous solution, c) forming an emulsion, a microemulsion or a micellar solution of which the aqueous phase makes up at least 75% of the final emulsion, microemulsion or micellar solution, by mixing, under stirring, the concentrated oily solution obtained in step a) with the diluted aqueous solution obtained in step b), d) packaging, in a sterile manner, the obtained eye drops in packaging that is suitable for ophthalmic use.
A process for purification of an oxydiphthalic anhydride, the process comprising: contacting a mixture comprising an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, with a solvent comprising methanol to provide a slurry; wherein the solvent is capable of solubilizing at least one of the corresponding oxydiphthalic diacid, the corresponding oxydiphthalic tetraacid, the halophthalic anhydride, and the catalyst at a temperature of 15 to 50°C; and wherein the oxydiphthalic anhydride is substantially insoluble in the solvent at a temperature of 15 to 50°C; and isolating the oxydiphthalic anhydride from the slurry. contacting a mixture comprising an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, an oxydiphthalic anhydride, and at least one of a corresponding oxydiphthalic diacid, a corresponding oxydiphthalic tetraacid, a halophthalic anhydride, and a catalyst, with a solvent comprising methanol to provide a slurry; wherein the solvent is capable of solubilizing at least one of the corresponding oxydiphthalic diacid, the corresponding oxydiphthalic tetraacid, the halophthalic anhydride, and the catalyst at a temperature of 15 to 50°C; and wherein the oxydiphthalic anhydride is substantially insoluble in the solvent at a temperature of 15 to 50°C; and isolating the oxydiphthalic anhydride from the slurry.
A rotary joint, comprising a wiring unit having a main portion of a flexible printed circuit (FPC) board therein, characterized in that , said rotary joint further comprising a protective unit fixed to said wiring unit , in which an end portion of said FPC board is connected to a group of cables , wherein said protective unit comprises a connecting member and a plastic board coupling to each other, said connecting member being fixed to said wiring unit , said plastic board being fixed to said end portion of said FPC board .
An antibacterial composite applied to a plastic substrate, the antibacterial composite material being added to a plastic substrate and the antibacterial composite material comprising an antibacterial material, wherein the antibacterial material is encapsulated by a microemulsion to form the microemulsion having the antibacterial material, and the microemulsion having the antibacterial material is combined with a dendrimer via a merging technique, an amount of a weight ratio of the dendrimer and the microemulsion having the antibacterial material being 1:1-10:1; wherein the merging technique is a conjugate combination technique or an embedding technique, the conjugate combination technique enables the microemulsion having the antibacterial material to conjugate to the dendrimer, or the embedding technique enables the microemulsion having the antibacterial material to embeds in the dendrimer; wherein the microemulsion comprises a cosurfactant, water and a surfactant; the cosurfactant is a dodecylbenzenesulfonic acid or its salt compounds and the surfactant is lauric acid or alkyl glycoside; the antibacterial material is selected from the group consisting of benzaldehyde and cinnamaldehyde and mixtures thereof; and the dendrimer is a PAMAM dendrimer.
A defrosting and acoustic treatment device for an air intake lip of a turbojet engine nacelle , characterized in that it includes an embossed acoustic structure which is adapted to bear on an acoustic skin of the air intake lip , and which delimits a plurality of acoustic cells , each cell being delimited by an independent peripheral wall which allows the circulation of a defrost air flow around each cell .
A gas turbine engine comprising: a turbine section ; an exhaust system connected to the turbine section , wherein the exhaust system comprises; a volute for receiving an exhaust fluid flow , wherein the exhaust fluid flow moves through volute channels to a volute transition duct , wherein the volute transition duct has a perimeter forming a volute outlet , wherein the perimeter is formed from a plurality of chevrons ; and a stack surrounding the volute transition duct wherein the exhaust fluid flow exiting from the volute outlet mixes with ventilation fluid flow as the exhaust fluid flow moves through the stack thereby forming a combined fluid flow . a turbine section ; an exhaust system connected to the turbine section , wherein the exhaust system comprises; a volute for receiving an exhaust fluid flow , wherein the exhaust fluid flow moves through volute channels to a volute transition duct , wherein the volute transition duct has a perimeter forming a volute outlet , wherein the perimeter is formed from a plurality of chevrons ; and a stack surrounding the volute transition duct wherein the exhaust fluid flow exiting from the volute outlet mixes with ventilation fluid flow as the exhaust fluid flow moves through the stack thereby forming a combined fluid flow .
A equipment of localization of peduncle comprising: an image acquiring section that acquires an image of a plurality of fruits ; and an estimation section that estimates a position of a peduncle that is coupled with the plurality of fruits , wherein the estimation determines a straight line by interpolation of center positions each assigned to a different fruit and mutual distances among the plurality of fruits in the image acquired by the image acquiring section . an image acquiring section that acquires an image of a plurality of fruits ; and an estimation section that estimates a position of a peduncle that is coupled with the plurality of fruits , wherein the estimation determines a straight line by interpolation of center positions each assigned to a different fruit and mutual distances among the plurality of fruits in the image acquired by the image acquiring section .