mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a cheese product whose fat content is less than or equal to 5% by weight relative to the total weight of the cheese product, and said cheese product having a moisture in the fat-reduced cheese product (HFD) from 60 to 75%, said method comprising the following steps: a) in a mixing or recombination device, mixing and heating at a temperature of 40 to 70°C for at least 10 minutes, with a shear of 5,000 to 40,000 s -1 , preferably 15,000 to 25,000 s -1 , a mixture comprising water, and at least one protein material in sufficient quantity so that the protein content represents 10 to 35% by weight relative to the total weight of the mixture, said protein material comprising at least one dairy-derived protein material, the mixture comprising at most 5% fat by weight relative to the total weight of the mixture, so as to obtain a homogeneous mixture; b) thermizing the mixture by heating, then cooling it; c) injecting into the mixture at least one coagulating agent; d) dosing the mixture containing the coagulant into molds; e) coagulating between 15 and 50°C; f) cooling down; and g) packaging the cheese product wherein said cheese product is characterized in that the diameter of at least 50% of the fat globules in the cheese product is less than or equal to 1.5 μm, preferably less than 1 μm, and in that the average diameter of the fat globules in the cheese product is less than or equal to 1.5 μm, preferably less than 1 μm. a) in a mixing or recombination device, mixing and heating at a temperature of 40 to 70°C for at least 10 minutes, with a shear of 5,000 to 40,000 s -1 , preferably 15,000 to 25,000 s -1 , a mixture comprising water, and at least one protein material in sufficient quantity so that the protein content represents 10 to 35% by weight relative to the total weight of the mixture, said protein material comprising at least one dairy-derived protein material, the mixture comprising at most 5% fat by weight relative to the total weight of the mixture, so as to obtain a homogeneous mixture; b) thermizing the mixture by heating, then cooling it; c) injecting into the mixture at least one coagulating agent; d) dosing the mixture containing the coagulant into molds; e) coagulating between 15 and 50°C; f) cooling down; and g) packaging the cheese product
A system comprising: - a lighting device comprising a sensor and a light source , wherein the sensor is configured to detect a presence in a space and to detect an emulator signal , - an emulator device configured to convey the emulator signal to the sensor ; - a controller configured to control the emulator device to transmit the emulator signal at a first moment in time, and to determine a verification condition of the sensor if the sensor detects the emulator signal at the first moment in time; and characterised in that , the light source is configured to provide ultraviolet light in operation and to interrupt providing said ultraviolet light in operation when the sensor detects presence in said space . - a lighting device comprising a sensor and a light source , wherein the sensor is configured to detect a presence in a space and to detect an emulator signal , - an emulator device configured to convey the emulator signal to the sensor ; - a controller configured to control the emulator device to transmit the emulator signal at a first moment in time, and to determine a verification condition of the sensor if the sensor detects the emulator signal at the first moment in time;
A sheave, especially a traction sheave, with (a) a hub , (b) a rim , which has an outer radius (R 16 ), and (c) a transmission structure for transmitting a torque (M) from the hub to the rim , (d) wherein the sheave is designed to rotate about a rotational axis (D), (e) wherein the transmission structure (i) features three bars (32.1, 32.2, 32.3), (ii) features a recess (34.1, 34.2, 34.3) between two adjacent bars (32.2, 32.3), (iii) each recess extends in an inner region along a first ellipse (E 1 ), (iv) each first ellipse (E 1 ) has a small first ellipse main axis (H 1 ), and (v) the small first ellipse main axis (H 1 ) extends through the hub , characterised in that (f) each of the bars (i) comprises an opening (42.1, 42.2, 42.3), which extends in the inner region along a second ellipse (E 2 ), (ii) each second ellipse (E 2 ) has a large second ellipse main axis (H 2 ), and (iii) the large second ellipse main axis (H 2 ) extends through the hub . (a) a hub , (b) a rim , which has an outer radius (R 16 ), and (c) a transmission structure for transmitting a torque (M) from the hub to the rim , (d) wherein the sheave is designed to rotate about a rotational axis (D), (e) wherein the transmission structure (i) features three bars (32.1, 32.2, 32.3), (ii) features a recess (34.1, 34.2, 34.3) between two adjacent bars (32.2, 32.3), (iii) each recess extends in an inner region along a first ellipse (E 1 ), (iv) each first ellipse (E 1 ) has a small first ellipse main axis (H 1 ), and (v) the small first ellipse main axis (H 1 ) extends through the hub , characterised in that (i) features three bars (32.1, 32.2, 32.3), (ii) features a recess (34.1, 34.2, 34.3) between two adjacent bars (32.2, 32.3), (iii) each recess extends in an inner region along a first ellipse (E 1 ), (iv) each first ellipse (E 1 ) has a small first ellipse main axis (H 1 ), and (v) the small first ellipse main axis (H 1 ) extends through the hub , characterised in that (f) each of the bars (i) comprises an opening (42.1, 42.2, 42.3), which extends in the inner region along a second ellipse (E 2 ), (ii) each second ellipse (E 2 ) has a large second ellipse main axis (H 2 ), and (iii) the large second ellipse main axis (H 2 ) extends through the hub . (i) comprises an opening (42.1, 42.2, 42.3), which extends in the inner region along a second ellipse (E 2 ), (ii) each second ellipse (E 2 ) has a large second ellipse main axis (H 2 ), and (iii) the large second ellipse main axis (H 2 ) extends through the hub .
Use of poly(butylene succinate co-adipate) (PBSA), mixed with a further substance comprising one or more polymers to form a polymeric blend, to improve the home compostability and/or soil biodegradability of the further substance comprising one or more polymers.
An air conditioner comprising: a housing having an inlet port ; a heat exchanger configured to exchange heat with air sucked in through the inlet port ; a blowing unit configured to circulate air into or out of the housing ; and at least one discharge unit rotatably provided relative to the housing and comprising an outer circumferential surface, the discharge unit having a first outlet port formed in a portion of the outer circumferential surface to discharge the heat-exchanged air and a second outlet port formed in another portion of the outer circumferential surface to discharge the heat-exchanged air at different speed from the air discharged from the first outlet port characterized in that the discharge unit is configured to selectively discharge air through the first outlet port or the second outlet port as the discharge unit rotates relative to the housing . a housing having an inlet port ; a heat exchanger configured to exchange heat with air sucked in through the inlet port ; a blowing unit configured to circulate air into or out of the housing ; and at least one discharge unit rotatably provided relative to the housing and comprising an outer circumferential surface, the discharge unit having a first outlet port formed in a portion of the outer circumferential surface to discharge the heat-exchanged air and a second outlet port formed in another portion of the outer circumferential surface to discharge the heat-exchanged air at different speed from the air discharged from the first outlet port characterized in that the discharge unit is configured to selectively discharge air through the first outlet port or the second outlet port as the discharge unit rotates relative to the housing .
An assembly for use in a liquid droplet apparatus, the assembly comprising: a vibrating element ; an aperture plate ; and a vibrating platform ; wherein the vibrating platform is positioned between the vibrating element and the aperture plate for conveying vibrations from the vibrating element to the aperture plate, wherein the vibrating platform comprises: a first annular portion for coupling to the vibrating element ; second annular portion for coupling to the aperture plate ; and a sidewall to define a cavity ; wherein the first annular portion lies in a first plane and the second annular portion lies in a second plane, the second plane being separated from and substantially in parallel with the first plane, and separated from and substantially in parallel with a third plane corresponding to a plane in which the vibrating element lies, wherein the sidewall protrudes at least partly through an aperture of the vibrating element, and wherein the vibrating platform is structured such that the aperture plate is located within the cavity defined by the sidewall; characterized in that the sidewall is angled with respect to the plane of the vibrating element so that the angle of the sidewall is adjusted through contraction and expansion of the vibrating element in a radial direction in the plane of the vibrating element. a vibrating element ; an aperture plate ; and a vibrating platform ;
A rust-preventive coating composition comprising: a binder (a); a zinc powder and/or zinc alloy powder (b); and a glass powder (c) which has a softening point of from 400 to 800°C and in which the total content of Li 2 O, Na 2 O and K 2 O is not more than 12% by mass, wherein the mass ratio ((c)/(b)) of the glass powder (c) to the zinc powder and/or zinc alloy powder (b) is from 0.001 to 0.10, and the binder (a) is a silicon based binder. a binder (a); a zinc powder and/or zinc alloy powder (b); and a glass powder (c) which has a softening point of from 400 to 800°C and in which the total content of Li 2 O, Na 2 O and K 2 O is not more than 12% by mass, wherein the mass ratio ((c)/(b)) of the glass powder (c) to the zinc powder and/or zinc alloy powder (b) is from 0.001 to 0.10, and the binder (a) is a silicon based binder.
A time-temperature integrating indicator label comprising an initiator reservoir and a target reservoir , said initiator reservoir containing a photoinitiated pH modification system and said target reservoir comprising a pH responsive indicator, wherein the label further comprises a third reservoir comprising a temperature-dependent timing mechanism comprising at least one of a diol, a polyol, a water-soluble polymer, and a gel, wherein the third reservoir is interposed between the initiator reservoir and the target reservoir, and wherein the temperature dependent timing mechanism is configured to regulate the rate at which the pH modification system travels from the initiator reservoir to the target reservoir comprising the pH responsive indicator.
An electrolyte composition, comprising at least one solvent, at least one conductive salt, at least one compound selected from the group consisting of fluorinated ethylene carbonates and vinylene carbonate, and at least one compound of general formula (I): R 1 R 2 CF-O-C(O)-O-R 3 (I) wherein R 1 and R 2 are independently H, F, alkyl, cycloalkyl, alkylene-aryl, or alkylene-heteroaryl; and wherein R 3 is an aryl group or an alkylene-aryl group, wherein the alkyl groups and the cycloalkyl groups may be optionally substituted, and the aryl groups may be optionally halogenated, wherein the concentration of the compound selected from the group consisting of fluorinated ethylene carbonates and vinylene carbonate is from 0.1 to 5 wt %, preferably 0.5 to 3.5 wt %, more preferably 1 to 2 wt %, relative to the total weight of the electrolyte composition.
A transmission method for transmitting a data message to at least one electronic receiving device , the method being implemented by an electronic transmitting device , the transmitting device and the one or more receiving device(s) being linked via an avionics network on board an aircraft , at least one device from the transmitting device and the receiving device being an avionics device on board the aircraft , the method comprising: - the generation of a data message , the message comprising a message header and one or more data packet(s) ; and - the transmission of the generated message to the one or more receiving device(s) ; characterized in that each packet comprises one or more data cluster(s) , each cluster containing an identifier field , a size field and a payload data field , and each cluster is adapted to include one or more other data cluster(s) , the one or more other data cluster(s) then forming the payload data field of said cluster , and in that to each cluster is associated a single avionics functional domain, each avionics functional domain preferably corresponding to an ATA chapter or an ATA sub-chapter. - the generation of a data message , the message comprising a message header and one or more data packet(s) ; and - the transmission of the generated message to the one or more receiving device(s) ; characterized in that each packet comprises one or more data cluster(s) , each cluster containing an identifier field , a size field and a payload data field , and each cluster is adapted to include one or more other data cluster(s) , the one or more other data cluster(s) then forming the payload data field of said cluster , and in that to each cluster is associated a single avionics functional domain, each avionics functional domain preferably corresponding to an ATA chapter or an ATA sub-chapter.
An artificial virus-like particle (VLP), comprising: (a) a fusion construct comprising a first and a second small molecule covalently linked to each other; (b) a fusion protein comprising a VLP forming polypeptide fused to another protein, polypeptide or protein subunit, wherein the another protein, polypeptide or protein subunit is recruiting the first small molecule of the fusion construct; (c) a prey polypeptide different from the VLP forming polypeptide, different from the another protein, polypeptide or protein subunit of the fusion protein of (b), and binding with the second small molecule of the fusion construct of (a) comprising a first and a second small molecule covalently linked to each other; wherein the VLP forming polypeptide is the HIV p55 GAG protein. (a) a fusion construct comprising a first and a second small molecule covalently linked to each other; (b) a fusion protein comprising a VLP forming polypeptide fused to another protein, polypeptide or protein subunit, wherein the another protein, polypeptide or protein subunit is recruiting the first small molecule of the fusion construct; (c) a prey polypeptide different from the VLP forming polypeptide, different from the another protein, polypeptide or protein subunit of the fusion protein of (b), and binding with the second small molecule of the fusion construct of (a) comprising a first and a second small molecule covalently linked to each other;
A control device for controlling a robot , the robot including a movable unit and a force detecting unit for detecting a force applied to the movable unit , the control device comprising a controller for selectively controlling the movable unit in a first control mode in which the movable unit continuously moves according to a force (F) detected by the force detecting unit based on predetermined force control parameter or in a second control mode in which the movable unit moves by a predetermined movement amount (ΔL) according to the force (F) detected by the force detecting unit , in teaching of the robot , characterized in that the controller is configured to select the first control mode or the second control mode according to a temporal change in the force (F) detected by the force detecting unit , wherein the temporal change in force relates to a length of a time during which a magnitude of the force (F) detected by the force detection unit is equal to or more than a force threshold (Fth), and the controller is configured so that in the second control mode, the controller moves the movable unit by a first movement amount (ΔL1) when the magnitude of the force (F) is equal to or more than a first value (V1) of the force threshold (Fth) and is less than a second value (V2) of the force threshold (Fth), which is larger than the first value (V1), and moves the movable unit by a second movement amount (ΔL2) larger than the first movement amount (ΔL1) when the magnitude of the force (F) is equal to or more than the second value (V2) of the force threshold (Fth). the control device comprising a controller for selectively controlling the movable unit in a first control mode in which the movable unit continuously moves according to a force (F) detected by the force detecting unit based on predetermined force control parameter or in a second control mode in which the movable unit moves by a predetermined movement amount (ΔL) according to the force (F) detected by the force detecting unit , in teaching of the robot , characterized in that the controller is configured to select the first control mode or the second control mode according to a temporal change in the force (F) detected by the force detecting unit , wherein the temporal change in force relates to a length of a time during which a magnitude of the force (F) detected by the force detection unit is equal to or more than a force threshold (Fth), and the controller is configured so that in the second control mode, the controller moves the movable unit by a first movement amount (ΔL1) when the magnitude of the force (F) is equal to or more than a first value (V1) of the force threshold (Fth) and is less than a second value (V2) of the force threshold (Fth), which is larger than the first value (V1), and moves the movable unit by a second movement amount (ΔL2) larger than the first movement amount (ΔL1) when the magnitude of the force (F) is equal to or more than the second value (V2) of the force threshold (Fth).
Method for selecting an operating mode of a cable modem between first and second operating modes, the first operating mode allowing reception of data in a downlink occupying a first frequency band and the transmission of data in an uplink occupying a second frequency band, the first and second frequency bands being separated by a third frequency band, the second operating mode allowing the reception of data in a downlink occupying a fourth frequency band and the transmission of data in an uplink occupying a fifth frequency band, the fourth and fifth frequency bands being separated by a sixth frequency band, the third frequency band lying in the fifth frequency band and the sixth frequency band lying in the first frequency band, the data transmitted and received being in accordance with a first and/or second standard, characterised in that the method comprises the steps, performed by the cable modem, of: - setting the cable modem in the second operating mode, - analysing the signals included in at least the part of the fifth frequency band comprising the third frequency band, - determining (E500) whether signals analysed are not signals in accordance with the first or second standard, - setting (E508) the cable modem in a data transmission and reception mode according to the second standard if signals analysed are not signals in accordance with the first and second standards and are not included in the third frequency band. - setting the cable modem in the second operating mode, - analysing the signals included in at least the part of the fifth frequency band comprising the third frequency band, - determining (E500) whether signals analysed are not signals in accordance with the first or second standard, - setting (E508) the cable modem in a data transmission and reception mode according to the second standard if signals analysed are not signals in accordance with the first and second standards and are not included in the third frequency band.
A geopolymeric composite ultra high performance concrete (GUHPC) mix, comprising: (a) a binder comprising one or more selected from the group consisting of reactive aluminosilicate and reactive alkali-earth aluminosilicate; wherein the binder comprises 10 to 50 wt% of the GUHPC mix; (b) an alkali activator comprising an aqueous solution of metal hydroxide and metal silicate; (c) one or more aggregate; and (d) one or more fillers with a particle size up to 75 μm, wherein the combined filler content is up to 35 wt% of the GUHPC mix; wherein one type of the one or more fillers comprises filler which has a particle size of between 0.05 and 1 μm, and is selected from the group consisting of silica fume, precipitated silica, ultrafine calcium carbonate, micron alumina, and submicron particles of metal oxides; and wherein the other type of the one or more filler has a particle size of between 1 and 75 μm and is selected from the group consisting of crushed quartz, zeolite, and ground glass. (a) a binder comprising one or more selected from the group consisting of reactive aluminosilicate and reactive alkali-earth aluminosilicate; wherein the binder comprises 10 to 50 wt% of the GUHPC mix; (b) an alkali activator comprising an aqueous solution of metal hydroxide and metal silicate; (c) one or more aggregate; and (d) one or more fillers with a particle size up to 75 μm, wherein the combined filler content is up to 35 wt% of the GUHPC mix;
A modular prefabricated petrol station, comprising: a prefabricated basin , defining a housing delimited by a bottom floor and by side walls, said housing being adapted to contain and bear a fuel tank; a fuel tank , said tank being contained inside said prefabricated basin ; an annular structure distinct from said prefabricated basin , having side walls defining a bottom perimeter matching said upper side edges of the prefabricated basin , and installed upon said prefabricated basin so as a bottom perimeter of the annular structure coincides with the upper side edges of the basin ; supporting pillars suitable for supporting a shelter ; characterized in that it further comprises a first supporting frame adapted to sustain a shelter , said first frame comprising a first grid of traverses placed below at least said annular structure ; the supporting pillars are fixed to said first grid of traverses; it further comprises a second frame distinct from said first supporting frame , having a second grid of traverses mounted suspended on said upper side edges of said annular structure , configured to sustain at least a fuel supply manhole and at least an inspection manhole in fluid communication with said tank , and for sustaining at least a fuel supply pump connected to said fuel supply manhole . a prefabricated basin , defining a housing delimited by a bottom floor and by side walls, said housing being adapted to contain and bear a fuel tank; a fuel tank , said tank being contained inside said prefabricated basin ; an annular structure distinct from said prefabricated basin , having side walls defining a bottom perimeter matching said upper side edges of the prefabricated basin , and installed upon said prefabricated basin so as a bottom perimeter of the annular structure coincides with the upper side edges of the basin ; supporting pillars suitable for supporting a shelter ; characterized in that it further comprises a first supporting frame adapted to sustain a shelter , said first frame comprising a first grid of traverses placed below at least said annular structure ; the supporting pillars are fixed to said first grid of traverses; it further comprises a second frame distinct from said first supporting frame , having a second grid of traverses mounted suspended on said upper side edges of said annular structure , configured to sustain at least a fuel supply manhole and at least an inspection manhole in fluid communication with said tank , and for sustaining at least a fuel supply pump connected to said fuel supply manhole .