mhurhangee/patent-ind-claim-en huggingface dataset:
A material, comprising: a highly branched glucan; a polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group covalently linked to the highly branched glucan, wherein the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group is selected from the group consisting of hydroxyethyl, hydroxypropyl, polyethylene glycol, polypropylene glycol, polyethylene oxide, polypropylene oxide, and their combinations; and a hydrophobic or amphiphilic group covalently linked to the highly branched glucan either directly or through the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group, wherein the hydrophobic or amphiphilic group is selected from the group consisting of acetate, propionate, butyrate, octenyl succinate, and their combinations. a highly branched glucan; a polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group covalently linked to the highly branched glucan, wherein the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group is selected from the group consisting of hydroxyethyl, hydroxypropyl, polyethylene glycol, polypropylene glycol, polyethylene oxide, polypropylene oxide, and their combinations; and a hydrophobic or amphiphilic group covalently linked to the highly branched glucan either directly or through the polyalkylene glycol, polyalkylene oxide, or hydroxyalkyl group, wherein the hydrophobic or amphiphilic group is selected from the group consisting of acetate, propionate, butyrate, octenyl succinate, and their combinations.
Determining method, at least for determining at least one c-value for an electronic heat cost allocator , characterized by the following method steps: - mounting the electronic heat cost allocator on a radiator , - starting up the radiator , - determining, in particular measuring, an average surface temperature of the radiator and/or determining a feed temperature and a return temperature at the radiator , wherein the feed temperature is determined by determining, in particular measuring, a surface temperature at a feed of the radiator and the return temperature is determined by determining, in particular measuring, a surface temperature at a return of the radiator , - determining, in particular measuring, a room air temperature of a room in which the radiator is arranged, - wherein the aforementioned temperatures are each determined by at least one external thermometer and/or by at least one external temperature sensor, rather than by temperature sensors of the electronic heat cost allocator , - requesting a sensor temperature of at least one temperature sensor of the electronic heat cost allocator , - calculating the at least one c-value, wherein for calculating the at least one c-value - an average heating medium overtemperature is calculated from the average surface temperature and the room air temperature and/or from the feed temperature, the return temperature and the room air temperature, and/or - a logarithmic overtemperature of the radiator is calculated from the feed temperature, the return temperature and the room air temperature. - mounting the electronic heat cost allocator on a radiator , - starting up the radiator , - determining, in particular measuring, an average surface temperature of the radiator and/or determining a feed temperature and a return temperature at the radiator , wherein the feed temperature is determined by determining, in particular measuring, a surface temperature at a feed of the radiator and the return temperature is determined by determining, in particular measuring, a surface temperature at a return of the radiator , - determining, in particular measuring, a room air temperature of a room in which the radiator is arranged, - wherein the aforementioned temperatures are each determined by at least one external thermometer and/or by at least one external temperature sensor, rather than by temperature sensors of the electronic heat cost allocator , - requesting a sensor temperature of at least one temperature sensor of the electronic heat cost allocator , - calculating the at least one c-value, - an average heating medium overtemperature is calculated from the average surface temperature and the room air temperature and/or from the feed temperature, the return temperature and the room air temperature, and/or - a logarithmic overtemperature of the radiator is calculated from the feed temperature, the return temperature and the room air temperature.
Training device for performing a surgical procedure, said device comprising an enclosure including: - a first surface defining an operation interface intended to receive at least one surgical tool , the remainder of the surface of the enclosure forming a base ; - an opening arranged on said first surface ; - a connection interface maintained at the circumference of said opening ; said connection interface being suitable for receiving and supporting a sheath ; said device being characterised in that the first surface includes a moveable portion in relation to the base , said opening being arranged on said moveable portion , - a first surface defining an operation interface intended to receive at least one surgical tool , the remainder of the surface of the enclosure forming a base ; - an opening arranged on said first surface ; - a connection interface maintained at the circumference of said opening ; said connection interface being suitable for receiving and supporting a sheath ;
An ancillary for bone surgery, advantageously for operative arthroscopy, operable for positioning and fixing a bone fragment on a target bone surface, wherein said ancillary comprises: (i) at least one operating handle , (ii) a sighting body comprising - two opposite end faces, a front one and a rear one , and - at least one sighting hole that opens to said two end faces , for guiding at least one screw and/or pin intended to be implanted into said bone fragment (F) and into said target bone surface (S), (iii) a feeler element , protruding from the front end face of said sighting body and having a lower face intended to bear against a part of said target bone surface (S), wherein said front end face of said sighting body and said lower face of said feeler element form together a dihedral receiving surface (D) against which said bone fragment (F) is intended to bear, characterized in that said ancillary comprises pressing means operable for temporarily holding said bone fragment (F) bearing against said dihedral receiving surface (D). wherein said ancillary comprises: (i) at least one operating handle , (ii) a sighting body comprising - two opposite end faces, a front one and a rear one , and - at least one sighting hole that opens to said two end faces , for guiding at least one screw and/or pin intended to be implanted into said bone fragment (F) and into said target bone surface (S), (iii) a feeler element , protruding from the front end face of said sighting body and having a lower face intended to bear against a part of said target bone surface (S), (i) at least one operating handle , (ii) a sighting body comprising - two opposite end faces, a front one and a rear one , and - at least one sighting hole that opens to said two end faces , for guiding at least one screw and/or pin intended to be implanted into said bone fragment (F) and into said target bone surface (S), (iii) a feeler element , protruding from the front end face of said sighting body and having a lower face intended to bear against a part of said target bone surface (S), wherein said front end face of said sighting body and said lower face of said feeler element form together a dihedral receiving surface (D) against which said bone fragment (F) is intended to bear, characterized in that said ancillary comprises pressing means operable for temporarily holding said bone fragment (F) bearing against said dihedral receiving surface (D).
Process for preparing a diamine/dicarboxylic acid salt comprising steps comprising contacting a diamine with a dicarboxylic acid to provide a reaction mixture in which said diamine and said dicarboxylic acid react to form a diamine/dicarboxylic acid salt, wherein (a) the dicarboxylic acid comprises an aromatic dicarboxylic acid; (b) the dicarboxylic acid is provided in a powder form; (c) the diamine is provided in a liquid form; (d) the contacting is performed by gradually dosing diamine liquid to dicarboxylic acid powder, while keeping the dicarboxylic acid powder in constant movement; (e) the reaction mixture is kept in constant movement for a time period directly following completion of the dosing; (f) (d) and (e) are carried out at a temperature above 0°C and below all of the following: the boiling temperature of the diamine and the melting temperatures of the dicarboxylic acid, the diamine/dicarboxylic acid salt and any intermediate reaction product, and (g) in (d) and (e) the reaction mixture comprises at most 5 wt.% of water, relative to the total weight of the diamine and dicarboxylic acid, wherein the diamine consists of a mixture of different diamines. (a) the dicarboxylic acid comprises an aromatic dicarboxylic acid; (b) the dicarboxylic acid is provided in a powder form; (c) the diamine is provided in a liquid form; (d) the contacting is performed by gradually dosing diamine liquid to dicarboxylic acid powder, while keeping the dicarboxylic acid powder in constant movement; (e) the reaction mixture is kept in constant movement for a time period directly following completion of the dosing; (f) (d) and (e) are carried out at a temperature above 0°C and below all of the following: the boiling temperature of the diamine and the melting temperatures of the dicarboxylic acid, the diamine/dicarboxylic acid salt and any intermediate reaction product, and (g) in (d) and (e) the reaction mixture comprises at most 5 wt.% of water, relative to the total weight of the diamine and dicarboxylic acid,
A method of producing a saccharified solution from a used absorbent article having an absorbent body that contains pulp fibers and a non-cellulosic liquid-permeable surface material, wherein the method includes a step of immersing the used absorbent article in a cellulase-containing saccharifying enzyme solution to produce a saccharified solution, wherein in the step of immersing the used absorbent article in the cellulase-containing saccharifying enzyme solution to produce the saccharified solution, the used absorbent article is immersed in the cellulase-containing saccharifying enzyme solution in a state in which the cellulose-containing absorbent body including a superabsorbent polymer of the used absorbent article is encapsulated with the surface material and a leakproof material.
A method of casting a steel semi-product from a liquid steel, the steel semi-product having a targeted composition in titanium of at least 3,5% in weight, the method comprising the following steps: A/ addition of aluminium to the liquid steel so that liquid steel contains at least 0,1% in weight of aluminium, B/ addition to the liquid steel of mineral compounds containing CaF2 and aluminium and calcium and optionally magnesium, to reach and maintain a slag composition wherein the ratio of CaO versus Al 2 O 3 (CaO/Al 2 O 3 ) is comprised from 0,7 to 2 and the slag contains up to 25%in weight of CaF2, C/ addition of titanium to the liquid steel to reach the targeted composition, D/ casting the steel in the form of a semi-product. A/ addition of aluminium to the liquid steel so that liquid steel contains at least 0,1% in weight of aluminium, B/ addition to the liquid steel of mineral compounds containing CaF2 and aluminium and calcium and optionally magnesium, to reach and maintain a slag composition wherein the ratio of CaO versus Al 2 O 3 (CaO/Al 2 O 3 ) is comprised from 0,7 to 2 and the slag contains up to 25%in weight of CaF2, C/ addition of titanium to the liquid steel to reach the targeted composition, D/ casting the steel in the form of a semi-product.
Process for the production of a wood wool lightweight building element comprising brittle wood wool fibres arranged in irregular geometry, distributed inside the building element in the form of an open-pore three dimensional lattice and connected to one another by means of a binder system; in which the process comprises (a) providing wood wool fibres, (b) applying to the wood wool fibres a binder system in the form of a solution or dispersion, wherein the binder system can contain further solvents or dispersants such as water in suitable quantities to obtain a corresponding solvent or dispersion, the said solution or dispersion comprising: (i) at least a first and a second binder, which are different from one another, (ii) at least one flow agent, and (iii) at least one reaction accelerator; (c) applying the mixture of wood wool fibres and binder system obtained under (b) to a support, and (d) pressing the wood wool fibres, if necessary with the supply of thermal energy. (a) providing wood wool fibres, (b) applying to the wood wool fibres a binder system in the form of a solution or dispersion, wherein the binder system can contain further solvents or dispersants such as water in suitable quantities to obtain a corresponding solvent or dispersion, the said solution or dispersion comprising: (i) at least a first and a second binder, which are different from one another, (ii) at least one flow agent, and (iii) at least one reaction accelerator; (i) at least a first and a second binder, which are different from one another, (ii) at least one flow agent, and (iii) at least one reaction accelerator; (c) applying the mixture of wood wool fibres and binder system obtained under (b) to a support, and (d) pressing the wood wool fibres, if necessary with the supply of thermal energy.
A drug combination for use in a method of treating diabetes in a mammalian subject which comprises administering to said mammalian subject: (a) a glucagon receptor antagonist, and (b) a cholesterol absorption inhibitor; wherein the mammalian subject has an LDL cholesterol plasma level of less than 130 mg/dL. (a) a glucagon receptor antagonist, and (b) a cholesterol absorption inhibitor;
A radiating element , comprising: first and second dipole arms , each dipole arm having a capacitive coupling area; and the dipole arms being on a feedboard PCB substrate ; the dipole arms being capacitively coupled to feed lines on vertical stalks; the feedboard including a balun and first and second CLC matching circuits coupled to the balun , the first matching circuit being capacitively coupled to the first dipole arm and the second matching circuit being capacitively coupled to the second dipole arm , the first and second matching circuits each comprising in series: 1. a stalk, coupled to the balun , 2. a first capacitive element ; 3. an inductor ; and 4. a second capacitive element , the first capacitive element and an area of the stalk providing the parallel plates of a capacitor, wherein the feedboard PCB substrate provides the dielectric of a capacitor, the second capacitive element in the respective first and second matching circuits being coupled to the capacitive coupling areas of the respective first and second dipole arms to provide the second capacitor. first and second dipole arms , each dipole arm having a capacitive coupling area; and the dipole arms being on a feedboard PCB substrate ; the dipole arms being capacitively coupled to feed lines on vertical stalks; the feedboard including a balun and first and second CLC matching circuits coupled to the balun , the first matching circuit being capacitively coupled to the first dipole arm and the second matching circuit being capacitively coupled to the second dipole arm , the first and second matching circuits each comprising in series: 1. a stalk, coupled to the balun , 2. a first capacitive element ; 3. an inductor ; and 4. a second capacitive element , 1. a stalk, coupled to the balun , 2. a first capacitive element ; 3. an inductor ; and 4. a second capacitive element , the first capacitive element and an area of the stalk providing the parallel plates of a capacitor, wherein the feedboard PCB substrate provides the dielectric of a capacitor, the second capacitive element in the respective first and second matching circuits being coupled to the capacitive coupling areas of the respective first and second dipole arms to provide the second capacitor.
A polyol component P) comprising: a) 35 to 70 wt%, based on the total amount of components A) to G1) of the polyol component P), of one or more polyether polyols A) having an OH number in the range from 300 to 520 mg KOH/g and a functionality in the range from 4.6 to 6.5, selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, alkoxylation products of the aforesaid compounds, or mixtures thereof with alkylene oxides; b) one or more polyether polyols B) with an OH number in the range from 320 to 500 mg KOH/g, selected from reaction products of aromatic diamines with alkylene oxides; c) one or more polyether polyols C) having an OH number in the range from 15 to 75 mg KOH/g, selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, water or mixtures thereof with alkylene oxides; d) optionally one or more polyols D) which are different from the polyether polyols A), B) and C); e) optionally one or more catalysts E); f) optionally one or more further components F) selected from auxiliaries and adjuvants; and g) optionally one or more blowing agents selected from chemical blowing agents G1) and physical blowing agents G2), wherein the OH number is determined in accordance with DIN 53240 (1971-12) and wherein the functionality is calculated by the formula F = ∑ i = 1 m n i ⋅ f i ∑ i = 1 m n i _ wherein n i = mol of starter i; f i = functionality of starter i; m = number of starters in the starter mixture; F = functionality. a) 35 to 70 wt%, based on the total amount of components A) to G1) of the polyol component P), of one or more polyether polyols A) having an OH number in the range from 300 to 520 mg KOH/g and a functionality in the range from 4.6 to 6.5, selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, alkoxylation products of the aforesaid compounds, or mixtures thereof with alkylene oxides; b) one or more polyether polyols B) with an OH number in the range from 320 to 500 mg KOH/g, selected from reaction products of aromatic diamines with alkylene oxides; c) one or more polyether polyols C) having an OH number in the range from 15 to 75 mg KOH/g, selected from reaction products of monosaccharides, oligosaccharides, polysaccharides, polyhydric alcohols, water or mixtures thereof with alkylene oxides; d) optionally one or more polyols D) which are different from the polyether polyols A), B) and C); e) optionally one or more catalysts E); f) optionally one or more further components F) selected from auxiliaries and adjuvants; and g) optionally one or more blowing agents selected from chemical blowing agents G1) and physical blowing agents G2), n i = mol of starter i; f i = functionality of starter i; m = number of starters in the starter mixture; F = functionality.
A structural cable of a construction work, the structural cable comprising: a bundle of load-bearing tendons; a sheath within which the bundle of tendons is located; and a housing located within the sheath, characterized in that the housing is directly secured to the sheath and welded to an inner surface of the sheath , wherein the housing has a concavity turned towards a region of the sheath which includes openings , to define a cavity , extending longitudinally relative to the sheath, and wherein the bundle of tendons is located outside the housing and the cavity . a bundle of load-bearing tendons; a sheath within which the bundle of tendons is located; and a housing located within the sheath, characterized in that the housing is directly secured to the sheath and welded to an inner surface of the sheath , wherein the housing has a concavity turned towards a region of the sheath which includes openings , to define a cavity , extending longitudinally relative to the sheath, and wherein the bundle of tendons is located outside the housing and the cavity .
A method for editing an object, the method comprising: displaying a navigation bar and a user interface of an application in a terminal device, wherein the navigation bar is a control for displaying n virtual buttons provided by an operating system of the terminal device, wherein the n virtual buttons comprise at least one of: a return key, a home key and a menu key, and n is a positive integer; when an editable object exists in the user interface, adding and displaying an integration entry as a visual icon in the navigation bar on a region other than regions for the n virtual buttons on the navigation bar; in response to receiving an input on the integration entry, replacing the n virtual buttons to display at least two editing control interfaces corresponding to the editable object in the navigation bar; receiving a first signal , wherein the first signal is generated according to a first designated operation triggered by one of the editing control interfaces; and performing an editing operation corresponding to the first signal for the editable object. displaying a navigation bar and a user interface of an application in a terminal device, wherein the navigation bar is a control for displaying n virtual buttons provided by an operating system of the terminal device, wherein the n virtual buttons comprise at least one of: a return key, a home key and a menu key, and n is a positive integer; when an editable object exists in the user interface, adding and displaying an integration entry as a visual icon in the navigation bar on a region other than regions for the n virtual buttons on the navigation bar; in response to receiving an input on the integration entry, replacing the n virtual buttons to display at least two editing control interfaces corresponding to the editable object in the navigation bar; receiving a first signal , wherein the first signal is generated according to a first designated operation triggered by one of the editing control interfaces; and performing an editing operation corresponding to the first signal for the editable object.
A mount interface comprising a latch and a latching assembly configured to receive the latch so as to lock the latch at a set position with respect to the latching assembly, wherein the latching assembly includes a housing provided with an irregular orifice configured to receive the latch; a first plug disposed in the housing so that a first portion of the irregular orifice overlies the first plug; and a second plug disposed in the housing adjacent the first plug so that a second portion of the irregular orifice overlies the second plug, wherein the irregular orifice is keyhole shaped with a circular portion contiguous with an elongated portion , and characterized in that the circular portion overlies both the first plug and the second plug and the elongated portion overlies the second plug and not the first plug. a housing provided with an irregular orifice configured to receive the latch; a first plug disposed in the housing so that a first portion of the irregular orifice overlies the first plug; and a second plug disposed in the housing adjacent the first plug so that a second portion of the irregular orifice overlies the second plug, wherein the irregular orifice is keyhole shaped with a circular portion contiguous with an elongated portion , and characterized in that the circular portion overlies both the first plug and the second plug and the elongated portion overlies the second plug and not the first plug.