mhurhangee/ep-ind-claims huggingface dataset:
A system iron comprising: a body including therein a steam generator for generating steam; an ironing plate disposed on the body so as to spray the steam generated by the steam generator to an outside; a height adjustment box, which is retracted into the body and extended outwards from the body so as to adjust a height of the ironing plate; a lock including a first bar, which projects outwards from the height adjustment box so as to limit movement of the height adjustment box; a lock holder, which is connected to two side surfaces of an end of the lock so as to change a position of the first bar, thereby allowing the height adjustment box to be moved; and a height adjustment lever for moving the lock holder via a wire. wherein the lock includes: the first bar, which is rotated about a hinge shaft and a portion of which projects outwards from the height adjustment box; and a second bar, which is connected at two side surfaces thereof to the lock holder and which changes a position of the first bar by movement of the lock holder, wherein the lock holder includes: a top bar connected to the height adjustment lever via the wire; and a pair of side bars, which are bent downwards at two ends of the top bar and are respectively connected to the two side surfaces of the second bar of the lock. a body including therein a steam generator for generating steam; an ironing plate disposed on the body so as to spray the steam generated by the steam generator to an outside; a height adjustment box, which is retracted into the body and extended outwards from the body so as to adjust a height of the ironing plate; a lock including a first bar, which projects outwards from the height adjustment box so as to limit movement of the height adjustment box; a lock holder, which is connected to two side surfaces of an end of the lock so as to change a position of the first bar, thereby allowing the height adjustment box to be moved; and a height adjustment lever for moving the lock holder via a wire. wherein the lock includes: the first bar, which is rotated about a hinge shaft and a portion of which projects outwards from the height adjustment box; and a second bar, which is connected at two side surfaces thereof to the lock holder and which changes a position of the first bar by movement of the lock holder, the first bar, which is rotated about a hinge shaft and a portion of which projects outwards from the height adjustment box; and a second bar, which is connected at two side surfaces thereof to the lock holder and which changes a position of the first bar by movement of the lock holder, a top bar connected to the height adjustment lever via the wire; and a pair of side bars, which are bent downwards at two ends of the top bar and are respectively connected to the two side surfaces of the second bar of the lock.
A chewable gel product, comprising a non-acid-activated gel carrier; and an active pharmaceutical ingredient, wherein the non-acid-activated gel carrier comprises a combination of carrageenan and pectin or a combination of carrageenan and gelatin, wherein the active pharmaceutical ingredient is loratadine, or a pharmaceutically acceptable salt, ester, hydrate, or solvate thereof and wherein the chewable gel product has a pH value that ranges from about 4 to about 8. a non-acid-activated gel carrier; and an active pharmaceutical ingredient, wherein the non-acid-activated gel carrier comprises a combination of carrageenan and pectin or a combination of carrageenan and gelatin, wherein the active pharmaceutical ingredient is loratadine, or a pharmaceutically acceptable salt, ester, hydrate, or solvate thereof and wherein the chewable gel product has a pH value that ranges from about 4 to about 8.
An orthodontic appliance comprising shells shaped to receive teeth of one of an upper or lower jaw, the shells being stacked and being varyingly affixed to one another, wherein varyingly affixed means having a substantial amount of surface areas between the shells being separable, and with remaining areas between the shells being affixed, wherein the shells comprise a first shell having cavities shaped to receive the teeth and at least one additional shell (16, 18) shaped to receive the first shell, wherein the at least one additional shell is stacked over the first shell, wherein the first shell has a bottom first surface for directly engaging the teeth and a top first surface opposite the bottom first surface and a first edge defined therebetween, wherein the at least one additional shell has a bottom second surface for mechanically engaging the top first surface of the first shell and a top second surface opposite the bottom second surface and a second edge (16a, 18a) defined therebetween, characterised in that some or all of the first edge and the second edge do not contact one another.
Method for the application of at least one voltage pulse to at least two containers (4, 15) fitted with electrodes, by means of which at least one voltage pulse is applied to at least one container (4, 15) within a housing, while at least one other container (4, 15) is subjected to a preparation or a post-processing outside the housing, comprising the following steps: a) Preparation of at least one container outside the housing and introducing of this container into the housing; b) Application of at least one voltage impulse to this container within the housing and at the same time preparation of at least one further container outside the housing; c) Mutual exchange of the respective positions of the containers (4, 15), wherein the container to which a voltage pulse has already been applied is moved out of the housing and the further container is moved into the housing; d) Application of at least one voltage pulse to the further container within the housing and at the same time post-processing of the container to which at least one voltage pulse has been applied as well as preparation of at least one next container outside the housing. a) Preparation of at least one container outside the housing and introducing of this container into the housing; b) Application of at least one voltage impulse to this container within the housing and at the same time preparation of at least one further container outside the housing; c) Mutual exchange of the respective positions of the containers (4, 15), wherein the container to which a voltage pulse has already been applied is moved out of the housing and the further container is moved into the housing; d) Application of at least one voltage pulse to the further container within the housing and at the same time post-processing of the container to which at least one voltage pulse has been applied as well as preparation of at least one next container outside the housing.
A method for producing an organic liquid product from a solid biomass comprising: (a) pretreating a solid biomass by contacting the solid biomass with an inorganic material present in an effective amount for increasing pyrolysis yield of an organic liquid product and being selected from the group consisting of aluminum sulfate, ammonium hydroxide or a mixture thereof and forming a solid pre-treated biomass comprising the inorganic material impregnated in the solid pre-treated biomass, wherein the amount of inorganic material in the pre-treated biomass is between 0.1 wt % to 4 wt %; and then (b) subjecting the solid pre-treated biomass to a pyrolysis reaction in the presence of the inorganic material to produce an organic liquid product, wherein the pyrolysis reaction is conducted at a temperature between 400°C to 600°C. (a) pretreating a solid biomass by contacting the solid biomass with an inorganic material present in an effective amount for increasing pyrolysis yield of an organic liquid product and being selected from the group consisting of aluminum sulfate, ammonium hydroxide or a mixture thereof and forming a solid pre-treated biomass comprising the inorganic material impregnated in the solid pre-treated biomass, wherein the amount of inorganic material in the pre-treated biomass is between 0.1 wt % to 4 wt %; and then (b) subjecting the solid pre-treated biomass to a pyrolysis reaction in the presence of the inorganic material to produce an organic liquid product, wherein the pyrolysis reaction is conducted at a temperature between 400°C to 600°C.
Device for the connection of a duct, comprising at least one tubular body and a tubular sealing sleeve, the tubular body being provided internally with an axial stop for a tubular sealing sleeve, the tubular sealing sleeve being mounted coaxially with the tubular body so as to define a tubular accommodating housing for the duct, the tubular sealing sleeve having an end which delimits an annular inlet to the housing characterized in that the end of the tubular sealing sleeve is radially deformable elastically between a rest state in which the annular inlet has an inside diameter greater than the inside diameter of the duct and a deformed state in which the inside diameter of the annular inlet is such that it allows the duct to be introduced into the housing, said housing comprising a maintaining means (15, 19, 21) for maintaining said end of the sealing sleeve in its deformed state, said means (15, 19, 21) being designed to be movable between an active position in which it maintains said end in the deformed state and an inactive position in which it is carried by the duct during the introduction thereof and allows said end to return to its rest state.
A light for a life vest comprising: a resilient pole; a light source disposed at a first end of the resilient pole; and a mount supporting a second end of the resilient pole and comprising a planar base configured to lie against a surface of an inflatable bladder of a life vest, the pole extending substantially orthogonally from the planar base, the mount configured for securing the light to the inflatable bladder whereby inflation of the bladder causes the pole to extend outwardly with respect to the surface of the bladder. a resilient pole; a light source disposed at a first end of the resilient pole; and a mount supporting a second end of the resilient pole and comprising a planar base configured to lie against a surface of an inflatable bladder of a life vest, the pole extending substantially orthogonally from the planar base, the mount configured for securing the light to the inflatable bladder whereby inflation of the bladder causes the pole to extend outwardly with respect to the surface of the bladder.
A method for producing electricity, and hydrogen or syngas, using a molten carbonate fuel cell comprising an anode and a cathode, the method comprising: introducing an anode fuel stream comprising a reformable fuel into the anode of the molten carbonate fuel cell, an internal reforming element associated with the anode of the molten carbonate fuel cell, or a combination thereof; introducing a cathode inlet stream comprising CO 2 and O 2 into the cathode of the molten carbonate fuel cell; generating electricity within the molten carbonate fuel cell; generating an anode exhaust from an anode outlet of the molten carbonate fuel cell; separating from the anode exhaust a H 2 -containing stream, a syngas-containing stream, or a combination thereof, wherein an amount of the reformable fuel introduced into the anode of the molten carbonate fuel cell, the internal reforming element associated with the anode of the molten carbonate fuel cell, or the combination thereof, provides a reformable fuel surplus ratio of at least 2.0, wherein reformable fuel surplus ratio is the Lower Heating Value of reformable fuel delivered to the anode and/or a reforming stage associated with the anode relative to the Lower Heating Value of hydrogen oxidized in the anode due to the fuel cell anode reaction, wherein the Lower Heating Value is the enthalpy of combustion of a fuel component to vapor phase, fully oxidized CO 2 and H 2 O products. introducing an anode fuel stream comprising a reformable fuel into the anode of the molten carbonate fuel cell, an internal reforming element associated with the anode of the molten carbonate fuel cell, or a combination thereof; introducing a cathode inlet stream comprising CO 2 and O 2 into the cathode of the molten carbonate fuel cell; generating electricity within the molten carbonate fuel cell; generating an anode exhaust from an anode outlet of the molten carbonate fuel cell; separating from the anode exhaust a H 2 -containing stream, a syngas-containing stream, or a combination thereof, wherein an amount of the reformable fuel introduced into the anode of the molten carbonate fuel cell, the internal reforming element associated with the anode of the molten carbonate fuel cell, or the combination thereof, provides a reformable fuel surplus ratio of at least 2.0, wherein reformable fuel surplus ratio is the Lower Heating Value of reformable fuel delivered to the anode and/or a reforming stage associated with the anode relative to the Lower Heating Value of hydrogen oxidized in the anode due to the fuel cell anode reaction, wherein the Lower Heating Value is the enthalpy of combustion of a fuel component to vapor phase, fully oxidized CO 2 and H 2 O products.
A transmission comprising an input shaft receiving a drive torque transferred via a clutch from a power source; a synchronizer group having a plurality of synchronizer to select one of plural gear sequences; an output shaft transmitting the drive torque changed by the selected gear sequence to a final drive gear; a gear ratio calculation means for calculating an actual gear ratio based on revolutions of the input and output shafts (3a, 3b) detected by a first revolution detection means and a second revolution detection means, respectively; a gear ratio map for defining a gear ratio variable allowance range for a gear ratio step; a determination means of gear ratio step for determining a current gear ratio step by the actual gear ratio and the gear ratio variable allowance range; wherein the determination means of gear ratio step including a first timer for measuring a first given time, is configured to make the first timer get started and halt to make a decision of the current gear ratio step while the first timer is activated, when the gear ratio reaches a gear ratio variable allowance range of next step corresponding to one upper step or one lower step than the current gear ratio step, and characterised in that: it comprises a neutral sensor for providing a signal upon detecting a neutral condition of the gear ratio step, wherein the signal of neutral sensor has priority over the gear ratio calculation with respect to determination of the neutral condition of the gear ratio step.
A medium or high voltage circuit breaker for switchgear, with vacuum circuit breaker, with at least one fixed contact and at least one movable contact, driven by a drive, wherein, the drive comprises an energy storage module, and a latching module; wherein, an energy storage mechanism of the energy storage module is based on a mechanical spring; wherein, the drive is configured to operate with different energy storage modules and associated different latching modules, such that the drive is configured to operate with vacuum circuit breakers with different ratings; wherein, each energy storage module of the different energy storage modules has a different mechanical spring to provide a different energy storage level; wherein, each latching module of the different latching modules has a design according to a different mechanical spring of the different mechanical springs of the different energy storage modules; and wherein, the drive is configured to operate with an energy storage module with a specific mechanical spring and an associated latching module that has a design according to the specific mechanical spring. wherein, the drive comprises an energy storage module, and a latching module; wherein, an energy storage mechanism of the energy storage module is based on a mechanical spring; wherein, the drive is configured to operate with different energy storage modules and associated different latching modules, such that the drive is configured to operate with vacuum circuit breakers with different ratings; wherein, each energy storage module of the different energy storage modules has a different mechanical spring to provide a different energy storage level; wherein, each latching module of the different latching modules has a design according to a different mechanical spring of the different mechanical springs of the different energy storage modules; and wherein, the drive is configured to operate with an energy storage module with a specific mechanical spring and an associated latching module that has a design according to the specific mechanical spring.
A banding device (100; 200; 300) including: a. a support table (102; 202; 302); b. a spool: rotatably situated about a spool axis defined by a spool shaft (104; 204; 304), the spool axis being restrained to travel in an orbital path about the support table (102; 202; 302); being defined by spooled banding material, the banding material having an end restrained adjacent the support table (102; 202; 302), with the banding material rotationally unwinding from the spool in a first sense as the spool axis orbits the support table (102; 202; 302); wherein the spool shaft (104; 204; 304) is driven: i. in the direction opposing the unwinding of the spool, and ii. at a rate exceeding the rate at which the banding material is unwound from the spool; and c. a clutch (110; 210;310) situated about the spool axis, wherein the clutch (110; 210;310) always restrains the spool to resist rotation in the first sense as the spool axis orbits the support table (102; 202; 302) in the first sense. a. a support table (102; 202; 302); b. a spool: rotatably situated about a spool axis defined by a spool shaft (104; 204; 304), the spool axis being restrained to travel in an orbital path about the support table (102; 202; 302); being defined by spooled banding material, the banding material having an end restrained adjacent the support table (102; 202; 302), with the banding material rotationally unwinding from the spool in a first sense as the spool axis orbits the support table (102; 202; 302); wherein the spool shaft (104; 204; 304) is driven: i. in the direction opposing the unwinding of the spool, and ii. at a rate exceeding the rate at which the banding material is unwound from the spool; and rotatably situated about a spool axis defined by a spool shaft (104; 204; 304), the spool axis being restrained to travel in an orbital path about the support table (102; 202; 302); being defined by spooled banding material, the banding material having an end restrained adjacent the support table (102; 202; 302), with the banding material rotationally unwinding from the spool in a first sense as the spool axis orbits the support table (102; 202; 302); wherein the spool shaft (104; 204; 304) is driven: i. in the direction opposing the unwinding of the spool, and ii. at a rate exceeding the rate at which the banding material is unwound from the spool; and i. in the direction opposing the unwinding of the spool, and ii. at a rate exceeding the rate at which the banding material is unwound from the spool; and c. a clutch (110; 210;310) situated about the spool axis, wherein the clutch (110; 210;310) always restrains the spool to resist rotation in the first sense as the spool axis orbits the support table (102; 202; 302) in the first sense.
Composition comprising at least one enzyme and at least one microbicidal molecule selected from the group consisting of the fluoroquinolones, glycopeptides, lipoglycopeptides, fusidic acid, penicillins, cephalosporins, carbapenems, monobactams, polymyxins, beta-lactams, macrolides, lincosamides, oxazolidinones, phenicols, tetracyclines, aminoglycosides, rifamycins, nitrofurans, sulphamides, nitroimidazoles, and mixtures thereof as combination products, for simultaneous use, separate use or use staggered over time, for use in the therapeutic treatment of infections in the tissues, bones and cartilages and/or the internal bodily mucosae at an implantation site, said infections being post-implantation infections of the body of mammals, in particular post-implantation infections of the human body, said at least one enzyme being a deoxyribonuclease (DNase).
Biodegradable low density, self-sealing pellets foamable by irradiation particularly suitable for the production of foamed articles, said pellets comprising starch essentially free of native crystallinity which does not have endothermic gelatinisation peaks associated with a ΔH of more than 0.4 J/g of dry starch when analysed by differential scanning calorimetry in a hermetic capsule with a water/dry starch ratio of 4, said pellets being characterised by: - a porous internal structure having void area greater than 15 % with respect to the area of the cross-section of the pellet; - a mean equivalent diameter of pores less than 100 microns and - an external skin with pores in number less than 80 % with respect to the internal structure, said pores of said external skin having a mean equivalent diameter lower or equal to the mean equivalent diameter of the pores of the internal structure; wherein the mean equivalent diameter is calculated according to the following formula: mean equivalent diameter = ∑ i = 1 d i N where: - N is the number of pores which can be seen in the SEM inside the fracture surface area examined, and - d i is the equivalent diameter of the individual pores. - a porous internal structure having void area greater than 15 % with respect to the area of the cross-section of the pellet; - a mean equivalent diameter of pores less than 100 microns and - an external skin with pores in number less than 80 % with respect to the internal structure, said pores of said external skin having a mean equivalent diameter lower or equal to the mean equivalent diameter of the pores of the internal structure; - N is the number of pores which can be seen in the SEM inside the fracture surface area examined, and - d i is the equivalent diameter of the individual pores.