mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement for manufacturing of a web of packaging material for an oral pouched snuff product, said web being a saliva-permeable nonwoven web comprising fibres, whereof 0% - 95% of said fibres are of a first type and 5% -100% of said fibres are of a second type, said arrangement comprising - a first fibre supply unit for supplying said fibres of said first type, said fibres of said first type being cellulose-based staple fibres, and - a second fibre supply unit for supplying said fibres of said second type, said fibres of said second type being thermoplastic fibres, which are meltable and/or softenable at least at the surface, - a carding unit for carding said fibres to form a pre-web, - an air-through bonding unit for bonding said pre-web by means of at least partial melting and/or softening of said fibres of said second type to form said web, said air-through bonding unit comprising or being constituted by a flat air-through dryer and/or a cylinder air-through dryer , - a calendering unit for surface treatment of said web by smooth calendering, said calendering unit being configured to operate at a surface treatment temperature being within the range of 45°C - 120°C. - a first fibre supply unit for supplying said fibres of said first type, said fibres of said first type being cellulose-based staple fibres, and - a second fibre supply unit for supplying said fibres of said second type, said fibres of said second type being thermoplastic fibres, which are meltable and/or softenable at least at the surface, - a carding unit for carding said fibres to form a pre-web, - an air-through bonding unit for bonding said pre-web by means of at least partial melting and/or softening of said fibres of said second type to form said web, said air-through bonding unit comprising or being constituted by a flat air-through dryer and/or a cylinder air-through dryer , - a calendering unit for surface treatment of said web by smooth calendering, said calendering unit being configured to operate at a surface treatment temperature being within the range of 45°C - 120°C.
An antistatic agent comprising a polymer compound (E) having a structure in which a diol, an aliphatic dicarboxylic acid, an aromatic dicarboxylic acid, a compound (B) which comprises at least one group represented by the following Formula and has hydroxyl groups at both ends, and an epoxy compound (D) having two or more epoxy groups are bound via ester bonds:
A powder chamber , in particular for powder polishing devices, comprising a casing and two functional sectors , wherein the two functional sectors are arranged to be opposite to each other, and that at least one functional sector is designed to provide an opening for a working medium such as air or a mixture of powder and air, and that at least one of the two functional sectors is designed to allow the powder chamber to be removably locked with a corresponding arrangement or station, which jams or braces the powder chamber , wherein a locking causes the powder chamber to be sealed, wherein the locking is directed from one functional sector to the other functional sector by means of force application along an axis (R), wherein a first functional sector comprises an opening designed as inlet for the working medium, characterized in that the first functional sector is a bottom plate , which is form- and force-fittingly removably connected with the casing .
Fluid meter, in particular for water, including a totalizer provided with a consumption indicator, a housing referred to as a cap covering the totalizer, and a remote reading module fixed to the front face of said cap, enabling remote reading of consumption and containing reading means and transmission means in a housing, said housing including a front wall and a side wall , said module being covered by a cover arranged on the housing of the remote reading module and including at least one wall for covering said front wall , which meter is characterized in that said cover is made of an opaque material and also covers all of said side wall of the module and is fastened to said cap of the totalizer.
A surgery device for osteotomy (2,) comprising: a first body component having an upper guide edge for forming a cutting track, wherein said upper guide edge has a first correcting perforation ; a second body component having a lower guide edge disposed below said upper guide edge , a guide groove being formed between said upper guide edge and said lower guide edge for guiding a saw blade to perform a cutting procedure, wherein said lower guide edge has a second correcting perforation ; a hinge pin guide component disposed on the surface of said second body component , wherein said hinge pin guide component comprises a third correcting perforation extending to the rear of said guide groove , said third correcting perforation fits with a preoperative hinge axis for osteotomy as a hinge when a bone is opened; wherein a corrective angle (L, N) between a first hole axis (A1) of said first correcting perforation and a second hole axis (A2) of said second correcting perforation is formed, characterized in that said surgery device for osteotomy is configured such that when an open angle of a gap of said osteotomy is the same as that of a preoperative planning correction angle (M), said first hole axis (A1) of said first correcting perforation and said second hole axis (A2) of said second correcting perforation will coincide, so that an alignment bar can be inserted between said first correcting perforation and said second correcting perforation only when a tibia is opened to said preoperative planning correction angle (M) by said first body component and said second body component . a first body component having an upper guide edge for forming a cutting track, wherein said upper guide edge has a first correcting perforation ; a second body component having a lower guide edge disposed below said upper guide edge , a guide groove being formed between said upper guide edge and said lower guide edge for guiding a saw blade to perform a cutting procedure, wherein said lower guide edge has a second correcting perforation ; a hinge pin guide component disposed on the surface of said second body component , wherein said hinge pin guide component comprises a third correcting perforation extending to the rear of said guide groove , said third correcting perforation fits with a preoperative hinge axis for osteotomy as a hinge when a bone is opened; wherein a corrective angle (L, N) between a first hole axis (A1) of said first correcting perforation and a second hole axis (A2) of said second correcting perforation is formed, characterized in that said surgery device for osteotomy is configured such that when an open angle of a gap of said osteotomy is the same as that of a preoperative planning correction angle (M), said first hole axis (A1) of said first correcting perforation and said second hole axis (A2) of said second correcting perforation will coincide, so that an alignment bar can be inserted between said first correcting perforation and said second correcting perforation only when a tibia is opened to said preoperative planning correction angle (M) by said first body component and said second body component .
A method for synthesizing an Ahp-cyclodepsipeptide, comprising the steps of (a) providing a resin loaded with 5-hydroxy-norvaline, named amino acid P1', wherein the 5-hydroxy-norvaline P1' is coupled to the resin via its 5-hydroxyl group forming an ether bond with the resin; (b) adding 2 to 6 amino acids, named amino acid P1 to P6, to the 5-hydroxy-norvaline P1' using N terminal peptide synthesis, wherein the second amino acid P2 is an amino acid with a hydroxyl group in the side chain; (c) adding an amino acid, named Px, to the hydroxyl group of the amino acid P2 via esterification with the α-carboxylic acid group of the amino acid; (d) adding an N-methylated amino acid, named P3', to the amino acid Px added in step (c) using N terminal peptide synthesis; (e) adding an amino acid, named P2', to the methylated amino group of the amino acid P3' added in step (d); (f) forming a peptide pond between the α-carboxylic acid group of the 5-hydroxy-norvaline P1' and the α-amino group of the amino acid P2' added in step (e), thereby cyclizing the formed peptide; (g) cleaving the cyclic peptide from the resin; (h) oxidizing the peptide so that the 5-hydroxy-norvaline P1' and the amino acid P2' added in step (e) form a 3-amino-6-hydroxy-2-piperidone unit, thereby providing an Ahp-cyclodepsipeptide. (a) providing a resin loaded with 5-hydroxy-norvaline, named amino acid P1', wherein the 5-hydroxy-norvaline P1' is coupled to the resin via its 5-hydroxyl group forming an ether bond with the resin; (b) adding 2 to 6 amino acids, named amino acid P1 to P6, to the 5-hydroxy-norvaline P1' using N terminal peptide synthesis, wherein the second amino acid P2 is an amino acid with a hydroxyl group in the side chain; (c) adding an amino acid, named Px, to the hydroxyl group of the amino acid P2 via esterification with the α-carboxylic acid group of the amino acid; (d) adding an N-methylated amino acid, named P3', to the amino acid Px added in step (c) using N terminal peptide synthesis; (e) adding an amino acid, named P2', to the methylated amino group of the amino acid P3' added in step (d); (f) forming a peptide pond between the α-carboxylic acid group of the 5-hydroxy-norvaline P1' and the α-amino group of the amino acid P2' added in step (e), thereby cyclizing the formed peptide; (g) cleaving the cyclic peptide from the resin; (h) oxidizing the peptide so that the 5-hydroxy-norvaline P1' and the amino acid P2' added in step (e) form a 3-amino-6-hydroxy-2-piperidone unit, thereby providing an Ahp-cyclodepsipeptide.
An image forming apparatus including an operation device coupled to the image forming apparatus and configured to accept an operation to the image forming apparatus , the image forming apparatus comprising: an application installer (INS) configured to install a new application on the image forming apparatus ; a first storage unit (FN1, 214) configured to be shared by a plurality of applications including the new application installed on the image-forming apparatus, the plurality of applications comprising an application selected from the group consisting of a copier application, a facsimile application, a printer application, and a scanner application, the first storage unit (FN1, 214) being further configured to store a set value set by and to be used by the new application installed on the image forming apparatus or the operation device ; a setting unit (FN2, 215) configured to accept an operation of writing or reading the set value; a determination unit (FN3, 211) configured to determine a storage destination of the set value based on flag data associated with a read request or a write request of the set value; and an application unit (FN5, 211) configured to perform a process in accordance with a determination result by the determination unit, to encrypt the set value and store the encrypted set value in the first storage unit (FN1, 214), write the set value to a second storage unit (FN4, 214), or read the set value from the second storage unit (FN4, 214). an application installer (INS) configured to install a new application on the image forming apparatus ; a first storage unit (FN1, 214) configured to be shared by a plurality of applications including the new application installed on the image-forming apparatus, the plurality of applications comprising an application selected from the group consisting of a copier application, a facsimile application, a printer application, and a scanner application, the first storage unit (FN1, 214) being further configured to store a set value set by and to be used by the new application installed on the image forming apparatus or the operation device ; a setting unit (FN2, 215) configured to accept an operation of writing or reading the set value; a determination unit (FN3, 211) configured to determine a storage destination of the set value based on flag data associated with a read request or a write request of the set value; and an application unit (FN5, 211) configured to perform a process in accordance with a determination result by the determination unit, to encrypt the set value and store the encrypted set value in the first storage unit (FN1, 214), write the set value to a second storage unit (FN4, 214), or read the set value from the second storage unit (FN4, 214).
A cooler for beverage containers, comprising: a housing defining an interior volume for storing a first beverage container at a first predetermined temperature; a compartment arranged within the interior volume of the housing , wherein the compartment defines a second interior volume for storing a second beverage container at a second predetermined temperature that is at or below a freezing point of a beverage within the second container, wherein the compartment is enclosed; a cooling unit configured to maintain the interior volume of the housing at the first predetermined temperature and the compartment at the second predetermined temperature; a door that is movable from a closed position to an open position in which the interior volume of the housing and the first beverage container is accessible; a user interface for receiving a user input to dispense the second beverage container from the compartment; a delivery portal for providing access to the second beverage container; characterized by a chute that is configured to communicate the second beverage container from the compartment to the delivery portal , wherein the chute is configured to subject the second beverage container to a mechanical impact so as to cause nucleation of the beverage within the second beverage container and form a slush beverage within the second beverage container. a housing defining an interior volume for storing a first beverage container at a first predetermined temperature; a compartment arranged within the interior volume of the housing , wherein the compartment defines a second interior volume for storing a second beverage container at a second predetermined temperature that is at or below a freezing point of a beverage within the second container, wherein the compartment is enclosed; a cooling unit configured to maintain the interior volume of the housing at the first predetermined temperature and the compartment at the second predetermined temperature; a door that is movable from a closed position to an open position in which the interior volume of the housing and the first beverage container is accessible; a user interface for receiving a user input to dispense the second beverage container from the compartment; a delivery portal for providing access to the second beverage container; characterized by a chute that is configured to communicate the second beverage container from the compartment to the delivery portal , wherein the chute is configured to subject the second beverage container to a mechanical impact so as to cause nucleation of the beverage within the second beverage container and form a slush beverage within the second beverage container.
Retail display system comprising a device for displaying goods with a base frame and with a rear wall unit which is connected or can be connected to the base frame , so that the base frame and the rear wall unit have an L-shaped cross-section in a side view, wherein shelves can be fixed to the rear wall unit , wherein the retail display system comprises two side parts , a front panel and a base shelf , wherein the side parts and the front panel can be fixed to the device in such a way that, together with the rear wall unit , they form a goods receiving space delimited by the side parts and the rear wall unit at least on three sides, wherein the base shelf can be positioned on the side parts , the front panel and/or the device to delimit the goods receiving space at the bottom, wherein the side parts are each pivotably fixed to the rear wall unit , wherein the retail display system can be converted from a shelf-like device for goods display to a device having a goods receiving space for goods display that is delimited at least on three sides and at the bottom.
Multifunctional smart bed comprising: - a frame comprising a plurality of sections that are movable independently of each other; - a plurality of feet , each comprising a force sensor coupled to the frame; - a mattress arranged on the frame and supported by it; - a plurality of environmental sensors comprising one or more microphones, designed to obtain a real sound around the multifunctional intelligent bed and to distort the real sound, thereby irreversibly generating a distorted sound that is not recognisable to a human, by means of an irreversible mathematical function implemented in the electronic circuits of the microphones by software or hardware, wherein the distorted sound comprises distinguishing features that enable the artificial intelligence (IA) classifier to distinguish between different sound categories; - a controller communicatively coupled and configured to receive and process input from the force sensors in each of the plurality of feet and from each of the plurality of environmental sensors; and - a plurality of actuators communicatively coupled to the controller, mechanically coupled to the frame, and configured to change at least one or more features of the multifunctional smart bed based on inputs from the controller. - a frame comprising a plurality of sections that are movable independently of each other; - a plurality of feet , each comprising a force sensor coupled to the frame; - a mattress arranged on the frame and supported by it; - a plurality of environmental sensors comprising one or more microphones, designed to obtain a real sound around the multifunctional intelligent bed and to distort the real sound, thereby irreversibly generating a distorted sound that is not recognisable to a human, by means of an irreversible mathematical function implemented in the electronic circuits of the microphones by software or hardware, wherein the distorted sound comprises distinguishing features that enable the artificial intelligence (IA) classifier to distinguish between different sound categories; - a controller communicatively coupled and configured to receive and process input from the force sensors in each of the plurality of feet and from each of the plurality of environmental sensors; and - a plurality of actuators communicatively coupled to the controller, mechanically coupled to the frame, and configured to change at least one or more features of the multifunctional smart bed based on inputs from the controller.
A control apparatus for a vehicle, the vehicle including an engine , a drive wheel , an input rotating member to which power of the engine is transmitted, an output rotating member configured to output the power to the drive wheel, a continuously variable transmission mechanism , a gear mechanism having a gear stage, the continuously variable transmission mechanism and the gear mechanism being provided in parallel with each other between the input rotating member and the output rotating member, a clutch mechanism (C1, B1, C2) configured to selectively change a torque transmission path between a first path and a second path, the first path being a path configured to transmit the power of the engine to the drive wheel via the gear mechanism, the second path being a path configured to transmit the power of the engine to the drive wheel via the continuously variable transmission mechanism, the clutch mechanism including a first clutch (C1, B1) and a second clutch (C2), the first clutch being provided in the first path, the second clutch being provided in the second path, and a power transmission system including a third clutch (D1), the third clutch being arranged in the first path between the first clutch and the output rotating member, the control apparatus comprising: at least one electronic control unit characterized in being configured to when the vehicle travels by using the power that is transmitted through the second path in a state where both the first clutch and the third clutch are released, i) gradually increase a hydraulic pressure of the first clutch such that the first clutch is engaged, ii) calculate a command hydraulic pressure for setting the first clutch to a pressure regulating state based on a command hydraulic pressure of the first clutch at a timing at which an amount of change in an output-side rotation speed of the first clutch becomes larger than a predetermined value, wherein the pressure regulating state is a state where it is possible to control a clutch torque in response to a supplied hydraulic pressure from the timing at which a piston of a clutch begins to contact a friction plate, and iii) control the first clutch by using the calculated command hydraulic pressure. i) gradually increase a hydraulic pressure of the first clutch such that the first clutch is engaged, ii) calculate a command hydraulic pressure for setting the first clutch to a pressure regulating state based on a command hydraulic pressure of the first clutch at a timing at which an amount of change in an output-side rotation speed of the first clutch becomes larger than a predetermined value, wherein the pressure regulating state is a state where it is possible to control a clutch torque in response to a supplied hydraulic pressure from the timing at which a piston of a clutch begins to contact a friction plate, and iii) control the first clutch by using the calculated command hydraulic pressure.
A method for manufacturing a water-containing heat-resistant chocolate, which comprises: a step of adding a seeding agent containing at least a β-form XOX crystal to a chocolate mix in a molten state at a temperature of 32 to 40°C, and a step of adding water in an amount of 0.1 to 5.0% by mass to the chocolate mix, wherein the β-form XOX crystal is an oil and fat crystal in which, in the determination of a short spacing at 2θ in a range of 17 to 26 degrees by X-ray diffraction, a strong diffraction peak corresponding to a spacing of 4.5 to 4.7Å is detected and a diffraction peak corresponding to a spacing of 4.1 to 4.3Å and a diffraction peak corresponding to a spacing of 3.8 to 3.9Å are not detected or are very weak, and wherein X represents a saturated fatty acid having 18-22 carbon atoms, O represents oleic acid, and XOX represents triacylglycerol in which oleic acid is bonded to the 2-position of glycerol, and X is bonded to the 1- and 3-positions, which further includes, after the seeding agent addition step and the water addition step, a holding step of holding the temperature of the chocolate mix at 32 to 40°C for 10 minutes or more. a step of adding a seeding agent containing at least a β-form XOX crystal to a chocolate mix in a molten state at a temperature of 32 to 40°C, and a step of adding water in an amount of 0.1 to 5.0% by mass to the chocolate mix, wherein the β-form XOX crystal is an oil and fat crystal in which, in the determination of a short spacing at 2θ in a range of 17 to 26 degrees by X-ray diffraction, a strong diffraction peak corresponding to a spacing of 4.5 to 4.7Å is detected and a diffraction peak corresponding to a spacing of 4.1 to 4.3Å and a diffraction peak corresponding to a spacing of 3.8 to 3.9Å are not detected or are very weak, and wherein X represents a saturated fatty acid having 18-22 carbon atoms, O represents oleic acid, and XOX represents triacylglycerol in which oleic acid is bonded to the 2-position of glycerol, and X is bonded to the 1- and 3-positions, which further includes, after the seeding agent addition step and the water addition step, a holding step of holding the temperature of the chocolate mix at 32 to 40°C for 10 minutes or more.