mhurhangee/patent-ind-claim-en huggingface dataset:
A backpack or bag comprising a carrying system for carrying the backpack or bag , wherein the carrying system comprises: (a) an essentially elastic portion , (b) wherein the essentially elastic portion is attached to the backpack or bag at a first position located on the backpack or bag ; and (c) a limitation arrangement, wherein a length of the limitation arrangement limits a maximum extension of the essentially elastic portion , (d) wherein the limitation arrangement is attached at least at one second position on the backpack or bag that is different from the first position , and (e) wherein the limitation arrangement comprises a limitation strap and a guiding portion , wherein the guiding portion is attached to the backpack or bag at the second position , and wherein the limitation strap is slidably attached to the guiding portion . (a) an essentially elastic portion , (b) wherein the essentially elastic portion is attached to the backpack or bag at a first position located on the backpack or bag ; and (c) a limitation arrangement, wherein a length of the limitation arrangement limits a maximum extension of the essentially elastic portion , (d) wherein the limitation arrangement is attached at least at one second position on the backpack or bag that is different from the first position , and (e) wherein the limitation arrangement comprises a limitation strap and a guiding portion , wherein the guiding portion is attached to the backpack or bag at the second position , and wherein the limitation strap is slidably attached to the guiding portion .
An article having a longitudinal axis and a lateral axis, the article comprising a topsheet and a backsheet, the topsheet and backsheet each having a main body portion and a pair of wings , wherein the topsheet comprises an apertured film and the backsheet comprises a film, wherein the topsheet film and the backsheet film are bonded via a plurality of longitudinally-oriented adhesive stripes on the wing areas.
A method of encapsulating a selected cargo into a lipid-based transfection competent vesicle (TCV) comprising: - (a) providing a water-based solution comprising the lipid-based TCV, wherein the water-based solution is free of organic solvents and detergents; and, - (b) mixing the selected cargo into the solution under conditions suitable and for a time sufficient for the selected cargo to encapsulate within the cationic lipid-based TCV to provide a lipid-based TCV-encapsulated selected cargo, wherein the mixing is performed without the presence of an organic solvent and without the presence of a detergent, wherein the lipid-based TCV comprises an ionizable cationic lipid at about 20 mol% or at about 30 mol% and wherein the selected cargo comprises a protein. - (a) providing a water-based solution comprising the lipid-based TCV, wherein the water-based solution is free of organic solvents and detergents; and, - (b) mixing the selected cargo into the solution under conditions suitable and for a time sufficient for the selected cargo to encapsulate within the cationic lipid-based TCV to provide a lipid-based TCV-encapsulated selected cargo, wherein the mixing is performed without the presence of an organic solvent and without the presence of a detergent,
An Ag alloy sputtering target having a composition comprising 0.1 at% to 2.0 at% of Sn, 2.0 at% to 10.0 at% of Cu, optionally 0.1 at% to 3.0 at% of Ti, a total amount of 100 mass ppm or lower of Na, Si, V, Cr, Fe, and Co, and a balance of Ag and inevitable impurities.
A pharmaceutical composition comprising: a) about 3% (w/v) tetracaine, or a pharmaceutically acceptable salt thereof; b) a vasoconstrictor; and c) a pharmaceutically acceptable carrier. a) about 3% (w/v) tetracaine, or a pharmaceutically acceptable salt thereof; b) a vasoconstrictor; and c) a pharmaceutically acceptable carrier.
A method for manufacturing a liquid containing a salmon growth hormone, comprising: a heating step of heating a pulverized salmon head at 50°C or higher and 90°C or lower, a separating step of separating a solid component from a fluid component of the heated salmon head, and a freezing and re-thawing step of freezing and re-thawing the fluid component. a heating step of heating a pulverized salmon head at 50°C or higher and 90°C or lower, a separating step of separating a solid component from a fluid component of the heated salmon head, and a freezing and re-thawing step of freezing and re-thawing the fluid component.
An information reporting method, wherein the method comprises: obtaining (S203), by a network node, a status of implementing a Border Gateway Protocol flow specification, BGP FS, rule on the network node, wherein the status indicates that the BGP FS rule is implemented on the network node, or the status indicates that the BGP FS rule is not implemented on the network node; and sending (S204), by the network node, the status to a server, wherein when the status is that the BGP FS rule is implemented on the network node, the method further comprises: receiving (S205), by the network node, a traffic information report instruction from the server, obtaining (S206), by the network node, traffic matching information of the BGP FS rule, wherein the traffic matching information is information of data traffic matching the BGP FS rule; and sending (S207), by the network node, the traffic matching information to the server obtaining (S203), by a network node, a status of implementing a Border Gateway Protocol flow specification, BGP FS, rule on the network node, wherein the status indicates that the BGP FS rule is implemented on the network node, or the status indicates that the BGP FS rule is not implemented on the network node; and sending (S204), by the network node, the status to a server, wherein when the status is that the BGP FS rule is implemented on the network node, the method further comprises: receiving (S205), by the network node, a traffic information report instruction from the server, obtaining (S206), by the network node, traffic matching information of the BGP FS rule, wherein the traffic matching information is information of data traffic matching the BGP FS rule; and sending (S207), by the network node, the traffic matching information to the server receiving (S205), by the network node, a traffic information report instruction from the server, obtaining (S206), by the network node, traffic matching information of the BGP FS rule, wherein the traffic matching information is information of data traffic matching the BGP FS rule; and sending (S207), by the network node, the traffic matching information to the server
A lighting device providing a sparkling visual effect, said lighting device comprising: at least one solid state light-emitting element mounted on a carrier substrate , each solid state light-emitting element configured to emit light from a light emitting surface ; an encapsulant comprising a luminescent material, the encapsulant enclosing the light emitting surface(s) of said at least one solid state light-emitting element, and being configured to at least partly convert light emitted by the solid state light-emitting element to wavelength converted light; and a plurality of light-transmissive particles contained at least partly within said encapsulant , said light-transmissive particles having an average longest dimension extension in the range 0.4 to 1.5 times a layer thickness of said encapsulant over the light emitting surface(s), and wherein the carrier substrate is light transmissive and the encapsulant is provided on both planar surfaces of the carrier substrate . at least one solid state light-emitting element mounted on a carrier substrate , each solid state light-emitting element configured to emit light from a light emitting surface ; an encapsulant comprising a luminescent material, the encapsulant enclosing the light emitting surface(s) of said at least one solid state light-emitting element, and being configured to at least partly convert light emitted by the solid state light-emitting element to wavelength converted light; and a plurality of light-transmissive particles contained at least partly within said encapsulant , said light-transmissive particles having an average longest dimension extension in the range 0.4 to 1.5 times a layer thickness of said encapsulant over the light emitting surface(s), and wherein the carrier substrate is light transmissive and the encapsulant is provided on both planar surfaces of the carrier substrate .
Combination of an artificial fingernail and a double-sided adhesive strip for fastening the artificial fingernail to the natural fingernail , wherein the adhesive strip consists of an elastic material which reduces in terms of its width when pulled in its longitudinal direction and thus reduces the adhesive force, characterized in that , in order to generate the pulling force, a grip tab protrudes at the front end of the adhesive strip and lies, when the artificial fingernail is fastened, under the outwardly protruding region of the artificial fingernail.
Formwork system comprising two surface reinforcement beds , two formwork meshes and at least one hinged mechanism which comprises a leg , an arm and a strut , assembled as follows: - a first end of the leg and a first end of the strut are hinged together about a first pivot axis (XP1); - a second end of said strut and a first end of the arm are hinged together about a second pivot axis (XP2) parallel to said first pivot axis (XP1); - a first hinge is formed about said first pivot axis (XP1) by the corresponding ends and a running rod , said running rod being attached to or being part of a first one of said reinforcement beds ; - a second hinge is formed by a second end of the arm and a second running rod about a second axis (X7B) of the arm, said running rod being attached to or being part of the second reinforcement bed ; and, - a third hinge is formed by a second end of the leg and a third running rod about a second axis (X6B) of the leg, said running rod being attached to or being part of the second reinforcement bed ; the leg comprising: - a first extension which extends past the first hinge relative to the second hinge, said extension forming a connection for a running rod attached to or being part of a first one of the meshes ; and, - a second extension which extends past the second hinge relative to the first hinge, said extension forming a connection for another running rod attached to or being part of the second mesh . - a first end of the leg and a first end of the strut are hinged together about a first pivot axis (XP1); - a second end of said strut and a first end of the arm are hinged together about a second pivot axis (XP2) parallel to said first pivot axis (XP1); - a first hinge is formed about said first pivot axis (XP1) by the corresponding ends and a running rod , said running rod being attached to or being part of a first one of said reinforcement beds ; - a second hinge is formed by a second end of the arm and a second running rod about a second axis (X7B) of the arm, said running rod being attached to or being part of the second reinforcement bed ; and, - a third hinge is formed by a second end of the leg and a third running rod about a second axis (X6B) of the leg, said running rod being attached to or being part of the second reinforcement bed ; - a first extension which extends past the first hinge relative to the second hinge, said extension forming a connection for a running rod attached to or being part of a first one of the meshes ; and, - a second extension which extends past the second hinge relative to the first hinge, said extension forming a connection for another running rod attached to or being part of the second mesh .
Unit for heating blanks of hollow bodies made of plastic material, which includes a cavity through which the blanks run and comprises: - an emitter device equipped with at least one radiating source of electromagnetic radiation pointing towards the cavity ; - a frame delimiting the cavity and comprising a set of parts adjacent thereto, each adjacent part being provided with an internal face , turned towards the cavity and designed to absorb the electromagnetic radiator from the emitter device or to reflect it towards the cavity ; - a cooling circuit , which comprises a fluidic channel that is passed through by a heat transfer fluid; the heating unit being characterized in that the cooling circuit is entirely formed outside of the cavity , and each adjacent part is in thermal contact with a fluidic channel , the channel being a duct with closed outline which extends inside the adjacent part . - an emitter device equipped with at least one radiating source of electromagnetic radiation pointing towards the cavity ; - a frame delimiting the cavity and comprising a set of parts adjacent thereto, each adjacent part being provided with an internal face , turned towards the cavity and designed to absorb the electromagnetic radiator from the emitter device or to reflect it towards the cavity ; - a cooling circuit , which comprises a fluidic channel that is passed through by a heat transfer fluid;
A magnetic stripe transmission, MST, device comprising: a driver ; an inductor ; a magnetic stripe reader, MSR, comprising a first magnetic read head , integrated with the MST ; and a controller configured to directly drive the driver , wherein the MST device is configured to obtain magnetic stripe data from a payment card via an interface with an electronic device, to amplify and shape pulses containing the obtained magnetic stripe data in form of a series of magnetic pulses comprising the amplified and shaped pulses, and to emit the series of magnetic pulses ; wherein the inductor is driven by a series of timed current pulses from the driver that result in the series of the magnetic pulses that resemble the fluctuating magnetic field created by a moving magnetic stripe when the payment card is swiped in front of a magnetic reader; wherein the emitted magnetic pulses are configured to be picked up remotely by a second magnetic read head that is comprised in a point of sale (POS) device and to be converted into electrical pulses; and wherein the first magnetic read head of the MST device is configured to read the magnetic stripe data from the payment card for storage in either a secure memory of the MST device or in a mobile wallet of the electronic device . a driver ; an inductor ; a magnetic stripe reader, MSR, comprising a first magnetic read head , integrated with the MST ; and a controller configured to directly drive the driver , wherein the MST device is configured to obtain magnetic stripe data from a payment card via an interface with an electronic device, to amplify and shape pulses containing the obtained magnetic stripe data in form of a series of magnetic pulses comprising the amplified and shaped pulses, and to emit the series of magnetic pulses ; wherein the inductor is driven by a series of timed current pulses from the driver that result in the series of the magnetic pulses that resemble the fluctuating magnetic field created by a moving magnetic stripe when the payment card is swiped in front of a magnetic reader; wherein the emitted magnetic pulses are configured to be picked up remotely by a second magnetic read head that is comprised in a point of sale (POS) device and to be converted into electrical pulses; and wherein the first magnetic read head of the MST device is configured to read the magnetic stripe data from the payment card for storage in either a secure memory of the MST device or in a mobile wallet of the electronic device .
A composition comprising a first concentration of an E. coli O25B antigen polysaccharide, and a second concentration of each of an E . coli O1A antigen polysaccharide, an E. coli O2 antigen polysaccharide and an E. coli O6A antigen polysaccharide, wherein the ratio of the first concentration to the second concentration is 2: 1, each of the E. coli O25B, O1A, O2 and O6A antigen polysaccharides are independently covalently bound to a detoxified exotoxin A of Pseudomonas aeruginosa (EPA) carrier protein, and the first concentration is 10 to 36 μg/ml.
A system for bone imaging using magnetic resonance imaging, comprising an acquisition device configured to generate an echo MRI dataset comprising complex data according to an echo time and a radial sampling scheme wherein at least a center of a k-space is sampled in a radial fashion by carrying out an echo-data MRI acquisition scheme, wherein the acquisition device is configured to sample data on both sides of the origin of k-space, wherein the origin of k-space is based on the echo time (TE), to thereby sample, for a particular encoding gradient setting, data during at least part of a time interval from a radio-frequency (RF) excitation pulse to the echo time (TE), and during at least part of a time interval from the echo time (TE) onwards, wherein the echo time is greater than or equal to a predetermined T 2 value of a bone; a processing unit for processing the echo MRI dataset, wherein the processing unit is configured to apply a phase ramp to the radial sampling lines of the complex data according to the radial sampling scheme to obtain a bone-enhanced image dataset, wherein a single phase ramp is applied to a radial sampling line of the sampling scheme, which radial sampling line extends on both sides of an origin defined by the echo time, and wherein the phase ramp is based on an equation H k = e − i 2 πf k x 0 , wherein H(k) is the phase ramp expressed in a complex radial frequency domain with coordinate k, and x 0 represents a shift in image space, and f(k) is a monotonically increasing function of k, wherein the processing unit is configured to apply H(k) with positive and negative values of k.
A piston monitoring assembly comprising: a magnetic body coupled to a piston that is configured to move in opposite directions during a piston stroke to dispense a fluid; a magnetic sensor configured to output signals representative of a magnetic field generated by the magnetic body ; and a controller configured to examine the signals output by the magnetic sensor and to determine whether the piston is moving far enough to ensure that the fluid is being dispensed during a first movement of the piston in the piston stroke and that the fluid is prevented from being dispensed during a second movement of the piston in the piston stroke; wherein the controller is configured to obtain repeated samples of the signals output by the magnetic sensor and to sort the samples to determine an upper position of the piston and a lower position of the piston. a magnetic body coupled to a piston that is configured to move in opposite directions during a piston stroke to dispense a fluid; a magnetic sensor configured to output signals representative of a magnetic field generated by the magnetic body ; and a controller configured to examine the signals output by the magnetic sensor and to determine whether the piston is moving far enough to ensure that the fluid is being dispensed during a first movement of the piston in the piston stroke and that the fluid is prevented from being dispensed during a second movement of the piston in the piston stroke; wherein the controller is configured to obtain repeated samples of the signals output by the magnetic sensor and to sort the samples to determine an upper position of the piston and a lower position of the piston.
A system comprising a source touch display device and an active input device , the source touch display device comprising: a communication interface configured to communicatively couple the source touch display device with a target touch display device; a source touch sensor ; and a controller configured to: receive, via the source touch sensor, touch inputs from the active input device; characterized in that the controller is further configured to: determine that the active input device will likely move from the source touch sensor to a target touch sensor of the target touch display device based on the touch inputs; send, via the communication interface, active input device pairing information to the target touch display device; receive, via the communication interface, target touch display device pairing information from the target touch display device; and send the target touch display device pairing information to the active input device to effect a pairing between the active input device and the target touch display device. a communication interface configured to communicatively couple the source touch display device with a target touch display device; a source touch sensor ; and a controller configured to: receive, via the source touch sensor, touch inputs from the active input device; characterized in that the controller is further configured to: determine that the active input device will likely move from the source touch sensor to a target touch sensor of the target touch display device based on the touch inputs; send, via the communication interface, active input device pairing information to the target touch display device; receive, via the communication interface, target touch display device pairing information from the target touch display device; and send the target touch display device pairing information to the active input device to effect a pairing between the active input device and the target touch display device. receive, via the source touch sensor, touch inputs from the active input device; characterized in that the controller is further configured to: determine that the active input device will likely move from the source touch sensor to a target touch sensor of the target touch display device based on the touch inputs; send, via the communication interface, active input device pairing information to the target touch display device; receive, via the communication interface, target touch display device pairing information from the target touch display device; and send the target touch display device pairing information to the active input device to effect a pairing between the active input device and the target touch display device. send, via the communication interface, active input device pairing information to the target touch display device; receive, via the communication interface, target touch display device pairing information from the target touch display device; and send the target touch display device pairing information to the active input device to effect a pairing between the active input device and the target touch display device.