mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a vegetable stretched-curd cheese, the method comprising the steps of: I) mixing a paste comprising ground nuts and/or seeds with water; II) fermenting the mixture with probiotic and/or thermophilic and/or mesophilic bacterial strains to obtain a fermented base; III) adding at least one texturizing agent and subjecting the mixture to a stretching step; wherein the stretching step comprises subjecting the mixture to a mechanical elongation and stretching action under heat at a temperature between 50 and 90° C ; and wherein the texturizing agent is selected from psyllium fibre, bamboo fibre, soluble maize fibre, oat fibre, pea fibre, flax flour, carboxymethylcellulose, hydroxypropyl methylcellulose, methylcellulose, sodium alginate, Guar gum powder, carob seed flour, xanthan gum and pectin, wherein the at least one texturizing agent is added in an amount comprised between 1% and 5% by weight, relative to the total weight of the fermented base, preferably in an amount of between 2% and 4%. I) mixing a paste comprising ground nuts and/or seeds with water; II) fermenting the mixture with probiotic and/or thermophilic and/or mesophilic bacterial strains to obtain a fermented base; III) adding at least one texturizing agent and subjecting the mixture to a stretching step; wherein the stretching step comprises subjecting the mixture to a mechanical elongation and stretching action under heat at a temperature between 50 and 90° C ; and wherein the texturizing agent is selected from psyllium fibre, bamboo fibre, soluble maize fibre, oat fibre, pea fibre, flax flour, carboxymethylcellulose, hydroxypropyl methylcellulose, methylcellulose, sodium alginate, Guar gum powder, carob seed flour, xanthan gum and pectin, wherein the at least one texturizing agent is added in an amount comprised between 1% and 5% by weight, relative to the total weight of the fermented base, preferably in an amount of between 2% and 4%.
A method of laminating a plurality of layers arranged in a stack to create a laminated composite , said method employing a laminating device which has at least one laminating tool including an upper tool and a lower tool provided each with a lamination plate , and in which method a stack to be laminated is positioned between the upper and lower lamination plates , and in which at least one of the upper and lower lamination plates is moved towards the stack and said stack is exposed to pressure exerted by the lamination plates and a lamination process is activated which includes a heating stage for causing the layers to be laminated together so as to form the laminated composite and a cooling stage for cooling said laminated composite , characterised in that during the heating stage and prior to bringing the upper and lower lamination plates together, at least one of the upper and lower lamination plates is activated and controlled to be heated with a heating temperature set to be slightly above the lamination temperature of the layers of the stack .
A resin switching assist method for a molding machine, the method assisting an operator in performing a resin switching process of discharging a former resin from a heating cylinder and then supplying a succeeding resin to the heating cylinder, the method comprising: in advance of the resin switching process, for each of different resins, estimating a zero shear viscosity of each resin by using a conversion function expression whose parameters are a melt flow rate and a set temperature of the heating cylinder, registering the estimated zero shear viscosity in a first database in a molding machine controller, and registering a purge resin required amount in a second database in the molding machine controller, the purge resin required amount corresponding to a viscosity difference between the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin; and in the resin switching process, obtaining the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin from the first database by inputting a melt flow rate of the former resin and a melt flow rate of the succeeding resin to the molding machine controller, obtaining a viscosity difference between the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin, obtaining an amount of a purge resin required for resin switching, as a purge resin required amount, from the second database, and displaying at least the obtained purge resin required amount. in advance of the resin switching process, for each of different resins, estimating a zero shear viscosity of each resin by using a conversion function expression whose parameters are a melt flow rate and a set temperature of the heating cylinder, registering the estimated zero shear viscosity in a first database in a molding machine controller, and registering a purge resin required amount in a second database in the molding machine controller, the purge resin required amount corresponding to a viscosity difference between the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin; and in the resin switching process, obtaining the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin from the first database by inputting a melt flow rate of the former resin and a melt flow rate of the succeeding resin to the molding machine controller, obtaining a viscosity difference between the zero shear viscosity of the former resin and the zero shear viscosity of the succeeding resin, obtaining an amount of a purge resin required for resin switching, as a purge resin required amount, from the second database, and displaying at least the obtained purge resin required amount.
Planetary transmission, comprising a planetary carrier , at least three planetary gears which are mounted on planet journals , an internal gear and a sun gear, the planetary carrier having bores which are arranged on a common hole circle (k) with regular centre points (O) which are distributed uniformly over the circumference for receiving the planet journals , characterized in that at least one bore is configured as an eccentric bore , the eccentric centre point (M) of which is arranged offset in the radial and/or tangential direction with respect to the regular centre point (O), in such a way that jamming in the tooth engagement between the planets and the sun gear and/or the internal gear is produced by way of the eccentric arrangement of the at least one bore , a planet journal and the planet which is mounted on the latter, the at least one eccentric bore having a greater diameter (D) than the remaining bores , and/or is configured as a slot, the planet journal which is arranged in the at least one eccentric bore being mounted in an elastic and/or damping manner, the planet journal being supported via elastically deformable rings with respect to the eccentric bore .
Tool set having a multiplicity of tool components for configuring two-part bending tools with dissimilar effective geometries for use in a bending head of a bending machine , wherein the bending head has a first tool carrier and a second tool carrier , wherein the first tool carrier by means of a first drive is rotatable about a bending head axis and has a first tool receptacle for receiving a first tool part of a bending tool , and the second tool carrier by means of a second drive is rotatable relative to the first tool carrier about the bending head axis and has a second tool receptacle , disposed eccentrically in relation to the bending head axis, for receiving a second tool part of the bending tool; the tool set comprising: at least one first main body which has a fastening portion matching the first tool receptacle, and a main body axis which, when in the first main body is fastened in the first tool receptacle, runs coaxially with the bending head axis , wherein the first main body furthermore has an insert carrier portion on which are configured a first insert receptacle (320-1), eccentric in relation to the main body axis , for receiving a first tool insert (330-1) and a second insert receptacle (320-2), offset from the latter at an angle, for receiving a second tool insert (330-2); at least one second main body which has a fastening portion matching the second tool receptacle , and an insert carrier portion on which is configured a third insert receptacle (420-3) for receiving a third tool insert (430-3); at least three tool inserts (330-1, 330-2, 430-3) which each have a fastening portion for fastening the tool insert to one of the insert receptacles, and an engagement portion (315-1, 315-2, 415-3) having a circumferential face for engaging on a wire or tube to be bent, wherein the circumferential face has an effective radius (R1, R2, R3) in relation to an engagement portion axis. at least one first main body which has a fastening portion matching the first tool receptacle, and a main body axis which, when in the first main body is fastened in the first tool receptacle, runs coaxially with the bending head axis , wherein the first main body furthermore has an insert carrier portion on which are configured a first insert receptacle (320-1), eccentric in relation to the main body axis , for receiving a first tool insert (330-1) and a second insert receptacle (320-2), offset from the latter at an angle, for receiving a second tool insert (330-2); at least one second main body which has a fastening portion matching the second tool receptacle , and an insert carrier portion on which is configured a third insert receptacle (420-3) for receiving a third tool insert (430-3); at least three tool inserts (330-1, 330-2, 430-3) which each have a fastening portion for fastening the tool insert to one of the insert receptacles, and an engagement portion (315-1, 315-2, 415-3) having a circumferential face for engaging on a wire or tube to be bent, wherein the circumferential face has an effective radius (R1, R2, R3) in relation to an engagement portion axis.
A stator assembly for use in an axial flux electric motor, said stator assembly comprising: a plurality of tooth assemblies ; a frame ; a plurality of circumferentially-spaced stator bases coupled to said frame, wherein each stator base is configured to receive a portion of a tooth assembly of the plurality of tooth assemblies ; and a plurality of circumferentially-spaced bridge members , wherein each bridge member is configured to engage a pair of circumferentially adjacent stator bases , wherein said plurality of stator bases are spaced apart by said plurality of bridge members ; and characterized in that said plurality of bridge members are spaced from said frame by said plurality of stator bases to define a gap between the frame and each bridge member. a plurality of tooth assemblies ; a frame ; a plurality of circumferentially-spaced stator bases coupled to said frame, wherein each stator base is configured to receive a portion of a tooth assembly of the plurality of tooth assemblies ; and a plurality of circumferentially-spaced bridge members , wherein each bridge member is configured to engage a pair of circumferentially adjacent stator bases , wherein said plurality of stator bases are spaced apart by said plurality of bridge members ; and characterized in that said plurality of bridge members are spaced from said frame by said plurality of stator bases to define a gap between the frame and each bridge member.
Pultrusion method for manufacturing a fibre-reinforced composite product comprising reinforcing fibres embedded in a thermoplastic matrix material, wherein along a path of pultrusion , the following steps are performed: - providing a preform (19; 21); - further downstream, inductively heating the preform (19; 21) to a processing temperature of the thermoplastic matrix material, the processing temperature being suitable for enabling subsequent consolidation of the preform , wherein the heat for heating the preform (19; 21) up to the processing temperature is introduced in a non-contact manner; and - further downstream, introducing the preform into a die (45; 66) and consolidating the preform by means of the die (45; 66) while the preform passes through the die (45; 66), in order to form the composite product , wherein the die (45; 66) is not actively heated or is actively cooled. - providing a preform (19; 21); - further downstream, inductively heating the preform (19; 21) to a processing temperature of the thermoplastic matrix material, the processing temperature being suitable for enabling subsequent consolidation of the preform , wherein the heat for heating the preform (19; 21) up to the processing temperature is introduced in a non-contact manner; and - further downstream, introducing the preform into a die (45; 66) and consolidating the preform by means of the die (45; 66) while the preform passes through the die (45; 66), in order to form the composite product , wherein the die (45; 66) is not actively heated or is actively cooled.
A method comprising: receiving, from client device , a sensitive file at a file receipt location ; adding metadata to the sensitive file ; transmitting a push notification to a cloud compute service that the sensitive file has been received at the file receipt location; cloud granting the cloud compute service access to the sensitive file , wherein the compute service generates, in response to receiving the push notification, a container instance which removes sensitive data from the sensitive file ; receiving an instruction to destroy the sensitive file ; and destroying the sensitive file in response to the instruction. receiving, from client device , a sensitive file at a file receipt location ; adding metadata to the sensitive file ; transmitting a push notification to a cloud compute service that the sensitive file has been received at the file receipt location; cloud granting the cloud compute service access to the sensitive file , wherein the compute service generates, in response to receiving the push notification, a container instance which removes sensitive data from the sensitive file ; receiving an instruction to destroy the sensitive file ; and destroying the sensitive file in response to the instruction.
A method of forming an electroacoustic transducer having a diaphragm and suspension , the method comprising: depositing a layer of compliant material on a first surface of a solid substrate ; and removing material from a second surface of the solid substrate, the removal leaving a block of substrate material suspended within an inner perimeter of an outer support ring of the substrate material by the compliant material, the block providing the diaphragm, wherein the compliant material comprises liquid silicone rubber (LSR). depositing a layer of compliant material on a first surface of a solid substrate ; and removing material from a second surface of the solid substrate, the removal leaving a block of substrate material suspended within an inner perimeter of an outer support ring of the substrate material by the compliant material, the block providing the diaphragm, wherein the compliant material comprises liquid silicone rubber (LSR).
A wearable support for electronic devices , particularly for portable electronic devices, the support comprising: - A support area adapted to removably retain an electronic device in a fixed position, wherein the support area comprises a planar wall that has a first face and a second face opposite the first face, the first face being the face on which, in use, the electronic device is removably constrained; - At least one first spacer element that is movably joined to the support area ; - At least one flexible tie-rod , which is retained between a first point and a second point , respectively at said at least one first spacer element and at the support area ; - An adjustable tensioner for said at least one flexible tie-rod , configured to operate at least between a first configuration for use, in which it exerts a first and greater pulling force on the flexible tie-rod , thus locking the position assumed by said at least one first spacer element with respect to the support area , and a second configuration for use, in which it exerts a second and lesser pulling force on the flexible tie-rod , thus determining a freedom of movement of said support area with respect to said at least one first spacer element , characterised by the fact that the adjustable tensioner is installed on the second face. - A support area adapted to removably retain an electronic device in a fixed position, wherein the support area comprises a planar wall that has a first face and a second face opposite the first face, the first face being the face on which, in use, the electronic device is removably constrained; - At least one first spacer element that is movably joined to the support area ; - At least one flexible tie-rod , which is retained between a first point and a second point , respectively at said at least one first spacer element and at the support area ; - An adjustable tensioner for said at least one flexible tie-rod , configured to operate at least between a first configuration for use, in which it exerts a first and greater pulling force on the flexible tie-rod , thus locking the position assumed by said at least one first spacer element with respect to the support area , and a second configuration for use, in which it exerts a second and lesser pulling force on the flexible tie-rod , thus determining a freedom of movement of said support area with respect to said at least one first spacer element ,
A use of at least one mixed mineral organoclay rheology additive, which comprises or consists of a quaternary alkyl-ammonium salt treated mineral clay mixture prepared by i. forming an aqueous hormite clay slurry (a) ii. forming an aqueous smectite clay slurry (b) iii. combining the aqueous hormite clay slurry (a) with the aqueous smectite clay slurry (b) to form a combined clay slurry (c) iv. treating the combined clay slurry I with one or more quaternary alkyl-ammonium salts v. separating the thus produced quaternary alkyl-ammonium salt treated mineral clay mixture from the aqueous medium, in which the aqueous hormite clay slurry (a) being formed by (i.1) dispersing a fraction of one or more hormite clays selected from the group of sepiolites and palygorskites in an aqueous medium to form a dispersion, and wherein the hormite clay fraction employed contains less than 3.0 % by weight of Al 2 O 3 , less than 1.0 % by weight of Fe 2 O 3 , and less than 3.5 % by weight of the combination of Al 2 O 3 and Fe 2 O 3 , and the aqueous smectite clay slurry (b) being formed by (ii.1) dispersing a fraction of one or more smectite clays in an aqueous medium to form a dispersion, and in that the weight of the hormite clay content exceeds the weight of the smectite clay content in the combined clay slurry (c); and subjecting the dispersions formed in (i.1) and (ii.1) to high speed fluid shear before carrying out step iii. and/or after having carried out step iii, in a liquid composition comprising at least one epoxy resin. i. forming an aqueous hormite clay slurry (a) ii. forming an aqueous smectite clay slurry (b) iii. combining the aqueous hormite clay slurry (a) with the aqueous smectite clay slurry (b) to form a combined clay slurry (c) iv. treating the combined clay slurry I with one or more quaternary alkyl-ammonium salts v. separating the thus produced quaternary alkyl-ammonium salt treated mineral clay mixture from the aqueous medium,
System for joining two drill string members of a drill string for ground drilling, wherein a drill string member has an insertion element in the form of a plug arranged at an end and the other drill string member has an insertion element in the form of a socket arranged at an end, wherein plug and socket are designed to form a plug connection in such a way that both drill string members have through holes aligned with each other, through which a withdrawal safety device can be inserted, and the withdrawal safety device has a head and an end at the opposite end to the head, wherein a thread is formed at the end , characterised in that the head and the end are spaced apart from one another such that the end is exposed at its end when the withdrawal safety device is inserted, wherein a counterpiece is present to engage with the thread of the withdrawal safety device and the counterpiece is designed to engage with a tool.
A loading and unloading apparatus for performing loading and unloading of workpieces with respect to access positions on a pallet , comprising: a plurality of hands including a first and a second hand which alternately access the access positions on the pallet , the access positions comprising access positions of each of the first hand and the second hand ; a managing unit which manages the access positions of the first hand and the second hand ; and a determining unit which determines a movement path of the second hand based on the access positions of the first hand , wherein the access positions and the access order of one of the first and the second hand are determined based on the access positions and the access order of the other one of the first and the second hand . a plurality of hands including a first and a second hand which alternately access the access positions on the pallet , the access positions comprising access positions of each of the first hand and the second hand ; a managing unit which manages the access positions of the first hand and the second hand ; and a determining unit which determines a movement path of the second hand based on the access positions of the first hand , wherein the access positions and the access order of one of the first and the second hand are determined based on the access positions and the access order of the other one of the first and the second hand .
A method of a server, the method comprising: receiving reservation information including user information from a terminal (S325); extracting at least one guest room setting factor to be set by the terminal, based on the user information and a room type (S330); transmitting information associated with the at least one extracted guest room setting factor to the terminal (S340); receiving guest room environment setting information for the guest room setting factor from the terminal (S355); receiving check-in information from the terminal (S375); selecting a room based on the guest room environment setting information (S380) upon receipt of the check-in information when the user does a check in; and managing the room based on the guest room environment setting information (S385), characterized by selecting the guest room having an environment closest to the guest room environment setting information when the user does the check in. receiving reservation information including user information from a terminal (S325); extracting at least one guest room setting factor to be set by the terminal, based on the user information and a room type (S330); transmitting information associated with the at least one extracted guest room setting factor to the terminal (S340); receiving guest room environment setting information for the guest room setting factor from the terminal (S355); receiving check-in information from the terminal (S375); selecting a room based on the guest room environment setting information (S380) upon receipt of the check-in information when the user does a check in; and managing the room based on the guest room environment setting information (S385), characterized by selecting the guest room having an environment closest to the guest room environment setting information when the user does the check in.