mhurhangee/patent-ind-claim-en huggingface dataset:
A standing pouch comprising: a bag including an internal space for accommodating a content and a first opening on a top side of the bag, and a fastener for opening and closing the first opening wherein the bag further includes a second opening on one lateral side of the bag, and is adapted to place the content in the internal space through the second opening , the second opening is adapted to be sealed in the state where the content is accommodated in the internal space , and the bag is further adapted for taking out the content accommodated in the internal space through the first opening and the opened fastener after the fastener has been opened, characterized in that the bag includes a vapor passage portion for removing vapor from the internal space, when internal pressure rises due to vapor generated by heating of the content, by allowing the internal space to communicate with the outside separate from the first opening ; the vapor passage portion is located at another lateral side of the bag opposite from the one lateral side. a bag including an internal space for accommodating a content and a first opening on a top side of the bag, and a fastener for opening and closing the first opening wherein the bag further includes a second opening on one lateral side of the bag, and is adapted to place the content in the internal space through the second opening , the second opening is adapted to be sealed in the state where the content is accommodated in the internal space , and the bag is further adapted for taking out the content accommodated in the internal space through the first opening and the opened fastener after the fastener has been opened, characterized in that the bag includes a vapor passage portion for removing vapor from the internal space, when internal pressure rises due to vapor generated by heating of the content, by allowing the internal space to communicate with the outside separate from the first opening ; the vapor passage portion is located at another lateral side of the bag opposite from the one lateral side.
Packaging machine for containers to be closed and welded, comprising a welding group of said containers and a transport system of said containers, wherein said welding group is placed in line on said transport system and comprises a sealing press having a frame , which horizontally moves opposing jaws , a plurality of servomotors positioned on opposite sides of said frame , and adapted to rotate, by means of respective reducers , relative horizontal pins , which are connected, by means of toggle return systems allowing the transformation of a rotary movement into a linear movement, to thrust elements connected to said opposing jaws , characterized in that said frame is moved in vertical direction by means of a motor placed below said frame and connected to supporting vertical pins .
A method for deploying an edge configuration server, ECS, by a provider entity in an edge computing communication system, the method comprising: receiving an operation request related to deployment of an ECS instance from a consumer entity, wherein the operation request comprises one or more requirements associated with the ECS; identifying at least one ECSfunction information object class, IOC, for the ECS based on the one or more requirements associated with the ECS; and creating the ECS instance based on the identified at least one ECSfunction IOC and the operation request, wherein the ECSfunction IOC is defined with at least one attribute comprising endpoint information of the ECS, information about an edge enabler server, EES, known to the ECS including EES endpoint, and edge data network, EDN, connection information, wherein creating the ECS instance comprises creating a managed object instance, MOI, for the identified at least one ECSfunction IOC based on the at least one attribute, the MOI corresponding to the ECS instance. receiving an operation request related to deployment of an ECS instance from a consumer entity, wherein the operation request comprises one or more requirements associated with the ECS; identifying at least one ECSfunction information object class, IOC, for the ECS based on the one or more requirements associated with the ECS; and creating the ECS instance based on the identified at least one ECSfunction IOC and the operation request, wherein the ECSfunction IOC is defined with at least one attribute comprising endpoint information of the ECS, information about an edge enabler server, EES, known to the ECS including EES endpoint, and edge data network, EDN, connection information, wherein creating the ECS instance comprises creating a managed object instance, MOI, for the identified at least one ECSfunction IOC based on the at least one attribute, the MOI corresponding to the ECS instance.
Adhesive tape containing an adhesive comprising - at least one polymer - optionally a tackifier resin - at least one reactive resin, the adhesive comprising at least 104 parts of the at least one reactive resin per 100 parts of polymer and tackifier resin - at least one initiator and/or curing agent and/or accelerator characterized in that the adhesive is a pressure sensitive adhesive, the at least one polymer being present as continuous polymer phase in the uncured state of the pressure sensitive adhesive, the reactive resin being in solution and/or dispersion in the polymer phase, - the reactive resin is an epoxy resin, being a solid having a softening temperature (measured according to the specified measurement method) of at least 45°C or having a viscosity of 25°C of at least 20 Pa s, preferably 50 Pa s, more particularly at least 150 Pa s (measured according to the specified measurement method) - and wherein the at least one polymer is a thermoplastic selected from the group of the polyurethanes, characterized in that the polyurethane is semicrystalline and in the DSC measurement has a melting peak or crystallization peak (measured according to the specified measurement method) which corresponds to an enthalpy of fusion of at least 25 J/g. - at least one polymer - optionally a tackifier resin - at least one reactive resin, the adhesive comprising at least 104 parts of the at least one reactive resin per 100 parts of polymer and tackifier resin - at least one initiator and/or curing agent and/or accelerator characterized in that the adhesive is a pressure sensitive adhesive, the at least one polymer being present as continuous polymer phase in the uncured state of the pressure sensitive adhesive, the reactive resin being in solution and/or dispersion in the polymer phase, - the reactive resin is an epoxy resin, being a solid having a softening temperature (measured according to the specified measurement method) of at least 45°C or having a viscosity of 25°C of at least 20 Pa s, preferably 50 Pa s, more particularly at least 150 Pa s (measured according to the specified measurement method) - and wherein the at least one polymer is a thermoplastic selected from the group of the polyurethanes, characterized in that the polyurethane is semicrystalline and in the DSC measurement has a melting peak or crystallization peak (measured according to the specified measurement method) which corresponds to an enthalpy of fusion of at least 25 J/g.
An aqueous composition comprising: - water, - at least 8.0% by weight of whey protein, and - at least 2.0% by weight of Gum Arabic, wherein: - the pH is of from 5.0 to 9.0, and - the weight ratio GA/WP between Gum Arabic and whey protein is higher than 0.25 and lower than 1.00, wherein the whey protein is at least partly solubilized in the water, optionally in the form of at least partially solubilized complex. - water, - at least 8.0% by weight of whey protein, and - at least 2.0% by weight of Gum Arabic, - the pH is of from 5.0 to 9.0, and - the weight ratio GA/WP between Gum Arabic and whey protein is higher than 0.25 and lower than 1.00,
A device for feeding yarn or yarns for knitting machines for hosiery or the like, comprising a supporting structure which supports at least one yarn finger which has an elongated shape and is pivoted, at an intermediate portion thereof, to said supporting structure about a corresponding rotation axis and having, proximate to a longitudinal end thereof, a passage for the yarn or yarns to be fed to the needles of the knitting forming machine, an electromagnetically actuated device being provided which acts on command on said at least one yarn finger for its rotation, with respect to said supporting structure , about the corresponding rotation axis , from an inactive position to at least one active position, which is angularly spaced with respect to said inactive position about said rotation axis , or vice versa, characterized in that said electromagnetically actuated device comprises at least one magnet which is fixed to said at least one yarn finger and at least one electric coil which is laterally adjacent to said at least one yarn finger and is connected to said supporting structure , said at least one electric coil being able to be supplied electrically to generate a magnetic field that interacts with said at least one magnet to actuate the rotation of said at least one yarn finger about the corresponding rotation axis with respect to said supporting structure .
A method of reconstructing an image using a magnetic resonance imaging, MRI, apparatus, the method comprising: displaying (S310, S410) a user interface indicating at least one first mode for reducing time required for reconstruction of the image, wherein the time required for image reconstruction is the amount of time that elapses between when the MRI apparatus receives an MR signal and when a reconstructed image is output, and a second mode for acquiring the image with high resolution;receiving an input selecting one of the first mode and the second mode as a selected mode; displaying (S310, S430, S435) at least one reconstruction option corresponding to the selected mode; receiving another input selecting at least one reconstruction option among the at least one displayed reconstruction option; transmitting a radio frequency, RF, signal towards the object to be imaged according to the selected mode and/or reconstruction option; receiving a resulting MR signal from the object; and reconstructing (S350, S450) the image from the received MR signal according to the at least one selected reconstruction option and selected mode; wherein the at least one reconstruction option displayed in response to the first mode being selected includes a two-dimensional, 2D, multi-slice method, and wherein if this reconstruction option is selected, the step of reconstructing the image is started by using data in a 2D slice that is received before all data for the entire 3D volume to be imaged is received. displaying (S310, S410) a user interface indicating at least one first mode for reducing time required for reconstruction of the image, wherein the time required for image reconstruction is the amount of time that elapses between when the MRI apparatus receives an MR signal and when a reconstructed image is output, and a second mode for acquiring the image with high resolution;receiving an input selecting one of the first mode and the second mode as a selected mode; displaying (S310, S430, S435) at least one reconstruction option corresponding to the selected mode; receiving another input selecting at least one reconstruction option among the at least one displayed reconstruction option; transmitting a radio frequency, RF, signal towards the object to be imaged according to the selected mode and/or reconstruction option; receiving a resulting MR signal from the object; and reconstructing (S350, S450) the image from the received MR signal according to the at least one selected reconstruction option and selected mode; wherein the at least one reconstruction option displayed in response to the first mode being selected includes a two-dimensional, 2D, multi-slice method, and wherein if this reconstruction option is selected, the step of reconstructing the image is started by using data in a 2D slice that is received before all data for the entire 3D volume to be imaged is received.
A computer-implemented method of progressively training a base caller, including: iteratively initially training a base caller with analyte of a single-oligo base sequence with a single known oligo base sequence, and generating labelled training data using the initially trained base caller, the base caller having an initial neural network configuration comprising a number of layers and parameters; (i) further training the base caller with analyte comprising multi-oligo base sequences comprising at least two known oligo base sequences that differ from one another by a threshold edit distance between respective nucleotide bases thereof, and generating labelled training data using the further trained base caller; and iteratively further training the base caller by repeating step (i), while, during at least one iteration, increasing a complexity of the initial neural network configuration of the base caller by increasing the number of layers and parameters relative to the initial neural network configuration to adjust the initial neural network configuration for the multi-oligo base sequences, wherein labelled training data generated during an iteration is used to train the base caller during an immediate subsequent iteration. iteratively initially training a base caller with analyte of a single-oligo base sequence with a single known oligo base sequence, and generating labelled training data using the initially trained base caller, the base caller having an initial neural network configuration comprising a number of layers and parameters; (i) further training the base caller with analyte comprising multi-oligo base sequences comprising at least two known oligo base sequences that differ from one another by a threshold edit distance between respective nucleotide bases thereof, and generating labelled training data using the further trained base caller; and (i) further training the base caller with analyte comprising multi-oligo base sequences comprising at least two known oligo base sequences that differ from one another by a threshold edit distance between respective nucleotide bases thereof, and generating labelled training data using the further trained base caller; and iteratively further training the base caller by repeating step (i), while, during at least one iteration, increasing a complexity of the initial neural network configuration of the base caller by increasing the number of layers and parameters relative to the initial neural network configuration to adjust the initial neural network configuration for the multi-oligo base sequences, wherein labelled training data generated during an iteration is used to train the base caller during an immediate subsequent iteration.
Tube-holding device for vehicles comprising - a hollow device body , enclosing a containment compartment for objects, said device body extending in a prevailing longitudinal direction (X-X) from a front end to a rear end , - a closing cover , joined to the front end , which may be opened so as to allow access to the containment compartment , through a relative access threshold , - a rear closure cap joined to the rear end , - wherein the closing cover is hinged at an upper wall of the device body , opposite a roof or an associated vehicle luggage rack, by means of at least one upper hinge having a horizontal axis (Y-Y), perpendicular to said prevailing longitudinal direction (X-X) and parallel to said upper wall , - wherein the access threshold is at least partially inclined with respect to a vertical plane (P), perpendicular to said prevailing longitudinal direction (X-X), and passing through said horizontal axis (Y-Y) of the upper hinge , - wherein the closing cover comprises a closing edge counter-shaped with respect to said access threshold , characterized in that the device body is provided with a bottom partition , placed opposite the upper hinge which divides the containment compartment from a locking compartment of the closing cover housing locking means of the closing cover . - a hollow device body , enclosing a containment compartment for objects, said device body extending in a prevailing longitudinal direction (X-X) from a front end to a rear end , - a closing cover , joined to the front end , which may be opened so as to allow access to the containment compartment , through a relative access threshold , - a rear closure cap joined to the rear end , - wherein the closing cover is hinged at an upper wall of the device body , opposite a roof or an associated vehicle luggage rack, by means of at least one upper hinge having a horizontal axis (Y-Y), perpendicular to said prevailing longitudinal direction (X-X) and parallel to said upper wall , - wherein the access threshold is at least partially inclined with respect to a vertical plane (P), perpendicular to said prevailing longitudinal direction (X-X), and passing through said horizontal axis (Y-Y) of the upper hinge , - wherein the closing cover comprises a closing edge counter-shaped with respect to said access threshold ,
A method of forming a leadless packaged semiconductor device from a leadframe structure the leadframe structure comprising an array of leadframe sub-structures each having a semiconductor die arranged thereon, the method comprising: providing electrical connections between terminals of said lead frame sub-structures and said leadframe structure wherein said electrical connections are sacrificial bond wires; encapsulating said leadframe structure, said electrical connections and said terminals in an encapsulation layer; performing a first series of parallel cuts extending fully through the leadframe structure and fully through the encapsulation layer to expose a side portion of said terminals; electro-plating said terminals to form metal side pads; performing a second series of parallel cuts angled with respect to the first series of parallel cuts, the second series of cuts extending through the lead frame structure and the encapsulation layer to singulate a semiconductor device from the leadframe structure wherein performing the second series of cuts sever the sacrificial bond wires between said terminals and the leadframe structure; and wherein said sacrificial bond wires are arranged to maintain electrical continuity between lead frame sub-structures following the first series of parallel cuts. providing electrical connections between terminals of said lead frame sub-structures and said leadframe structure wherein said electrical connections are sacrificial bond wires; encapsulating said leadframe structure, said electrical connections and said terminals in an encapsulation layer; performing a first series of parallel cuts extending fully through the leadframe structure and fully through the encapsulation layer to expose a side portion of said terminals; electro-plating said terminals to form metal side pads; performing a second series of parallel cuts angled with respect to the first series of parallel cuts, the second series of cuts extending through the lead frame structure and the encapsulation layer to singulate a semiconductor device from the leadframe structure wherein performing the second series of cuts sever the sacrificial bond wires between said terminals and the leadframe structure; and wherein said sacrificial bond wires are arranged to maintain electrical continuity between lead frame sub-structures following the first series of parallel cuts.
A stirrer comprising: two rotating shafts capable of rotating symmetrically and in the same direction with respect to each other, and stirring blades formed on each of the rotating shafts , characterised in that a driving means is connected to the rotating shafts that can adjust a phase angle of the two shafts , each of the stirring blades having a rotational path, the stirring blades formed on the two rotating shafts intersect with the rotational path of other stirring blades during operation, and a position control device is connected to the driving means for adjusting the relative positions of the stirring blades such that the stirring blades formed on the two rotating shafts do not interfere with each other when the stirring blades rotate intermittently in a symmetrical direction or rotate in an identical direction. two rotating shafts capable of rotating symmetrically and in the same direction with respect to each other, and stirring blades formed on each of the rotating shafts , characterised in that a driving means is connected to the rotating shafts that can adjust a phase angle of the two shafts , each of the stirring blades having a rotational path, the stirring blades formed on the two rotating shafts intersect with the rotational path of other stirring blades during operation, and a position control device is connected to the driving means for adjusting the relative positions of the stirring blades such that the stirring blades formed on the two rotating shafts do not interfere with each other when the stirring blades rotate intermittently in a symmetrical direction or rotate in an identical direction.
A passive intermodulation, PIM, elimination method, comprising: obtaining, by a network device, N pieces of backhauled information, wherein one piece of the backhauled information comprises initial phase information of each carrier, determined based on a numerically controlled oscillator, NCO, on one transmit channel, and N is an integer greater than 1; and eliminating, by the network device, a PIM of a received signal on a receive channel on the network device based on the N pieces of backhauled information. obtaining, by a network device, N pieces of backhauled information, wherein one piece of the backhauled information comprises initial phase information of each carrier, determined based on a numerically controlled oscillator, NCO, on one transmit channel, and N is an integer greater than 1; and eliminating, by the network device, a PIM of a received signal on a receive channel on the network device based on the N pieces of backhauled information.
A process for inhibiting scale produced from at least one species of scale-forming ion selected from the group consisting of Na 2 SiF 6 ; K 2 SiF 6 ; CaSO 4 + 2 H 2 O; CaSO 4 + 1⁄2 H 2 O; CaSO 4 ; MgSiF 6 + 6 H 2 O; Ca 3 (PO 4 ) 2 ; CaHPO 4 ; Si 2 F 6 ; CaSiF 6 + 2 H 2 O; CaF 2 ; MgF 2 ; Mg 0.8 Al 1.5 F 6 + X H 2 O, wherein X is an integer ranging from 2 to 10; MgH 2 P 6 O 7 ; Al(PO 3 ) 3 ; NaK 2 AlF 6 ; Ca 3 (AlF 6 ) 2 + 4 H 2 O; MgNaAlF 6 + 2 H 2 O; and Ca 4 SO 4 AlSiF 13 + 10 H 2 O during wet process phosphoric acid production, said process comprising: adding a scale-inhibiting amount of a reagent comprising a primary amine-containing polymer having one or more organic moiety that reduces the polymer's solubility in an aqueous acidic environment as compared to the primary amine-containing polymer without the one or more organic moiety to at least one stage of a wet process phosphoric acid production process, thereby reducing or preventing scale in the wet process phosphoric acid production process, wherein the one or more organic moieties is a hydrocarbyl moiety having from 1 to 22 carbon atoms and which is optionally substituted with one or more substituents selected from the group consisting of OH; C 1 -C 12 alkyl; C 1 -C 12 alkenyl; allyl; halogen; C 1 -C 12 haloalkyl; C 1 -C 12 alkoxy; hydroxy C 1 -C 12 alkyl; carboxy; C 1 -C 12 alkoxycarbonyl; C 1 -C 12 carboxyalkoxy; C 1 -C 12 carboxamido; cyano; formyl; C 1 -C 12 acyl; C 2 -C 12 alkyl ester; C 6 -C 12 aryl ester; nitro; amino; C 1-12 alkylamino; C 1-12 dialkylamino; anilino; mercapto; C 1-12 alkylthio; sulfoxide; sulfone; C 1-12 acylamino; amidino; aryloxy; arylamino; amido; epoxy; carbonyl; alkoxycarbonyl (ester); nitrile; ureido; silanol; phenyl; benzyl; heteroaryl; heterocycle; phenoxy; benzoyl; benzoyl substituted with amino, hydroxy, methoxy, methyl or halo; benzyloxy and heteroaryloxy; and wherein the scale-inhibiting amount of reagent added to the wet process phosphoric acid production process is from 0.5 g per ton to 5000 g per ton of phosphoric acid.