mhurhangee/patent-ind-claim-en huggingface dataset:
A defrothing device , comprising: a defrothing portion to separate froth into a coalesced fluid and air; an air vent to vent the air from the defrothing device; and characterized by a membrane on an outer surface of the defrothing device, the membrane sealing the air vent, the membrane being formed of a material to prevent liquid from passing therethrough; a termination vent exposed to the atmosphere; and a labyrinth formed on the outer surface of the defrothing device, the labyrinth extending from the air vent to the termination vent . a defrothing portion to separate froth into a coalesced fluid and air; an air vent to vent the air from the defrothing device; and characterized by a membrane on an outer surface of the defrothing device, the membrane sealing the air vent, the membrane being formed of a material to prevent liquid from passing therethrough; a termination vent exposed to the atmosphere; and a labyrinth formed on the outer surface of the defrothing device, the labyrinth extending from the air vent to the termination vent .
A single-particle capturing apparatus comprising: a flow channel on a substrate, the single-particle capturing apparatus including a wave structure with a mountain portion and a valley portion on the flow channel, and a recess portion at a top portion of the mountain portion, the recess portion including a draw-in passage. a flow channel on a substrate, the single-particle capturing apparatus including a wave structure with a mountain portion and a valley portion on the flow channel, and a recess portion at a top portion of the mountain portion, the recess portion including a draw-in passage.
A method for preventing a CCTV set-top box from being stolen, the method performed by the CCTV set-top box comprising steps of confirming whether a main power supply to the CCTV set-top box is turned on or not (step S1); controlling an image capturing unit installed outside the set-top box so as to capture a preset area according to a pre-programmed CCTV camera operating mode under the control of a central processing unit of the CCTV set-top box while the main power supply is connected (step S2); storing image data captured by the image capturing unit in the above step (step S2) in a storage unit, transmitting the stored image data to a mobile phone which is a mobile communication device of a manager through a communication unit or transmitting and storing the image data to a management server, and returning to the confirming step (step S1) (step S3); automatically connecting an auxiliary battery by the central processing unit when the main power supply is turned off in the above step (step S1) (step S4); and transmitting a state of the set-top box to the mobile phone of the manager and the server indicating that the main power supply is turned off through the communication unit and returning to the controlling step (step S2) (step S5), wherein when the main power supply to the set-top box is interrupted, the central processing unit transmits and stores a state of the set-top box and captured images from the time of interruption back to a predetermined time before the time of interruption to secure images related with a moving route of the stolen set-top box, thereby facilitating the resolution of the set-top box stealing crime. confirming whether a main power supply to the CCTV set-top box is turned on or not (step S1); controlling an image capturing unit installed outside the set-top box so as to capture a preset area according to a pre-programmed CCTV camera operating mode under the control of a central processing unit of the CCTV set-top box while the main power supply is connected (step S2); storing image data captured by the image capturing unit in the above step (step S2) in a storage unit, transmitting the stored image data to a mobile phone which is a mobile communication device of a manager through a communication unit or transmitting and storing the image data to a management server, and returning to the confirming step (step S1) (step S3); automatically connecting an auxiliary battery by the central processing unit when the main power supply is turned off in the above step (step S1) (step S4); and transmitting a state of the set-top box to the mobile phone of the manager and the server indicating that the main power supply is turned off through the communication unit and returning to the controlling step (step S2) (step S5), wherein when the main power supply to the set-top box is interrupted, the central processing unit transmits and stores a state of the set-top box and captured images from the time of interruption back to a predetermined time before the time of interruption to secure images related with a moving route of the stolen set-top box, thereby facilitating the resolution of the set-top box stealing crime.
A hearing assistive device (10; 60) having an input transducer (12; 61) adapted for converting sound into an audio signal applied to a processor (14; 66), said processor (14; 66) is configured to compensate a hearing loss of a user of the hearing assistive device and to output a compensated audio signal, and an output transducer (16; 65) adapted for converting the compensated audio signal into sound, and further comprising: - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assisting device; - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; characterized in - an audio stream analyzer (22a; 68a) adapted for classifying the audio stream received via said wireless transceiver as utility audio or entertainment audio; - wherein the attenuator (23; 66a) is controlled in accordance to the audio stream classification from the audio stream analyzer (22a; 68a) and applies attenuation to the received audio stream when classified as entertainment audio. - a wireless transceiver (21; 67) enabling audio streaming from an external device (30; 80) to the hearing assisting device; - a controllable attenuator (23; 66a) associated with said processor (14; 66) adapted for applying attenuation to the compensated audio signal; characterized in - an audio stream analyzer (22a; 68a) adapted for classifying the audio stream received via said wireless transceiver as utility audio or entertainment audio; - wherein the attenuator (23; 66a) is controlled in accordance to the audio stream classification from the audio stream analyzer (22a; 68a) and applies attenuation to the received audio stream when classified as entertainment audio.
A copolymer rubber of a chloroprene monomer and an unsaturated nitrile compound, with a Mooney viscosity ML(1+4) 100°C of 20 to 80 and having a functional group of a structure represented by the following general formula or : (wherein in general formula , R 1 shows hydrogen, chlorine, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkenyl group, a substituted or unsubstituted aryl group, or a substituted or unsubstituted heterocyclyl group); wherein an amount of the unsaturated nitrile compound bonded is 1.0 to 18.0% by mass.
Tanxanes compounds having the structure represented by the following general formula I: wherein, R 1 is t -butyloxycarbonyl or N,N'-dimethylcarbamoyl; R 2 is phenyl, or R 3 is -OMe, -OCOOCH 3 , or -OCON(CH 3 ) 2 ; R 4 , -OCOOCH 3 , -OCON(CH 3 ) 2 , -OCOSC 2 H 5 or H. R 1 is t -butyloxycarbonyl or N,N'-dimethylcarbamoyl; R 2 is phenyl, or R 3 is -OMe, -OCOOCH 3 , or -OCON(CH 3 ) 2 ; R 4 , -OCOOCH 3 , -OCON(CH 3 ) 2 , -OCOSC 2 H 5 or H.
An upper for an article of footwear , the upper comprising: a knitted component having a first portion integrally formed with a second portion , wherein the first portion of the knitted component at least partially forms a foot-receiving base portion of the upper , wherein the second portion of the knitted component at least partially forms a strap of the upper , wherein the first portion and the second portion share at least one common yarn at a first edge on a medial side of the upper and at a second edge on a lateral side of the upper , and wherein a third edge of the second portion extends from the first edge over a throat area to the second edge of the upper , wherein the upper comprises a pocket , defined between the foot-receiving base portion of the upper and the strap of the upper , for receiving at least one tension element , characterised in that the upper further comprises at least one tension element located in the pocket defined between the foot-receiving base portion of the upper and the strap of the upper . a knitted component having a first portion integrally formed with a second portion , wherein the first portion of the knitted component at least partially forms a foot-receiving base portion of the upper , wherein the second portion of the knitted component at least partially forms a strap of the upper , wherein the first portion and the second portion share at least one common yarn at a first edge on a medial side of the upper and at a second edge on a lateral side of the upper , and wherein a third edge of the second portion extends from the first edge over a throat area to the second edge of the upper , wherein the upper comprises a pocket , defined between the foot-receiving base portion of the upper and the strap of the upper , for receiving at least one tension element , characterised in that the upper further comprises at least one tension element located in the pocket defined between the foot-receiving base portion of the upper and the strap of the upper .
A method, comprising: determining a desired logic state of a self-selecting memory cell , the desired logic state representing one or more bits of data , wherein the self-selecting memory cell comprises a chalcogenide alloy (220-a, 220-b, 510) and wherein a first side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a second electrode (225-a, 225-b, 515); determining a threshold voltage of the self-selecting memory cell that corresponds to the desired logic state of the self-selecting memory cell ; determining a shape of a programming pulse having a single polarity in order to obtain the threshold voltage of the self-selecting memory cell ; and applying the programming pulse to the self-selecting memory cell based at least in part on determining the shape of the programming pulse , characterised in that the method is further comprising : wherein applying the programming pulse to the self-selecting memory cell comprises producing an asymmetric spatial distribution of at least one constituent of the chalcogenide alloy (220-a, 220-b, 510) between the first side of the chalcogenide alloy (220-a, 220-b, 510) and the second side of the chalcogenide alloy (220-a, 220-b, 510). determining a desired logic state of a self-selecting memory cell , the desired logic state representing one or more bits of data , wherein the self-selecting memory cell comprises a chalcogenide alloy (220-a, 220-b, 510) and wherein a first side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a first electrode (215-a, 215-b, 505) and a second side of the chalcogenide alloy (220-a, 220-b, 510) interfaces with a second electrode (225-a, 225-b, 515); determining a threshold voltage of the self-selecting memory cell that corresponds to the desired logic state of the self-selecting memory cell ; determining a shape of a programming pulse having a single polarity in order to obtain the threshold voltage of the self-selecting memory cell ; and applying the programming pulse to the self-selecting memory cell based at least in part on determining the shape of the programming pulse , characterised in that the method is further comprising : wherein applying the programming pulse to the self-selecting memory cell comprises producing an asymmetric spatial distribution of at least one constituent of the chalcogenide alloy (220-a, 220-b, 510) between the first side of the chalcogenide alloy (220-a, 220-b, 510) and the second side of the chalcogenide alloy (220-a, 220-b, 510).
An engine device comprising: an intake manifold configured to supply air into a cylinder , the cylinder being in communication with the intake manifold through an intake port ; an exhaust manifold configured to output exhaust gas from the cylinder ; a gas injector arranged to the intake port which mixes a natural gas with the air supplied from the intake manifold ; and a main fuel injection valve configured to inject a liquid fuel into a main combustion chamber in the cylinder for combustion, the gas injector and the main fuel injection valve being provided to each of a plurality of the cylinders , the engine device configured to drive in either a gas mode in which the natural gas is supplied into the cylinder and supply of the liquid fuel is stopped, or a diesel mode in which the liquid fuel is supplied into the cylinder , and supply of natural gas is stopped wherein at a time of switching an operation mode from one to the other between the gas mode and the diesel mode, an instant switching to the diesel mode is executed when an engine rotation number is determined as to approach an upper limit value which leads to an emergency stop of the engine device .
Method of manufacturing a razor head component, comprising the steps of: a) providing a strip of material elongated along a first direction (X), the strip having first and second rounded extremities parallel with said first direction (X), having a first portion comprising said first extremity, a second portion comprising said second extremity, and an intermediate portion intermediate said first and second portions, b) bending the intermediate portion of at least a part of said strip about a bending axis, c) fixing a razor blade onto the second portion of said part. a) providing a strip of material elongated along a first direction (X), the strip having first and second rounded extremities parallel with said first direction (X), having a first portion comprising said first extremity, a second portion comprising said second extremity, and an intermediate portion intermediate said first and second portions, b) bending the intermediate portion of at least a part of said strip about a bending axis, c) fixing a razor blade onto the second portion of said part.
A gas turbine engine comprising: a turbine rotor connected to a main compressor rotor; a tail cone mounted inward of an exhaust core flow (C); a generator comprising a generator rotor adjacent a generator stator , said generator being mounted within said tail cone ; a duct connecting a bypass flow path (B) to said tail cone , said turbine rotor driving a shaft to drive said generator rotor ; and characterised by a cooling air compressor operable within said duct , said turbine rotor driving the shaft to drive said cooling air compressor , wherein said tail cone is provided by an inner wall and an outer wall , and said cooling air compressor is connected to deliver cooling air to a passage between said inner and outer walls . a turbine rotor connected to a main compressor rotor; a tail cone mounted inward of an exhaust core flow (C); a generator comprising a generator rotor adjacent a generator stator , said generator being mounted within said tail cone ; a duct connecting a bypass flow path (B) to said tail cone , said turbine rotor driving a shaft to drive said generator rotor ; and characterised by a cooling air compressor operable within said duct , said turbine rotor driving the shaft to drive said cooling air compressor , wherein said tail cone is provided by an inner wall and an outer wall , and said cooling air compressor is connected to deliver cooling air to a passage between said inner and outer walls .
A method for producing a poly(3-hydroxybutyrate) resin tube comprising a poly(3-hydroxybutyrate) resin, the tube having a wall thickness of 0.1 to 0.6 mm, the method comprising the step of mixing at least two types of poly(3-hydroxybutyrate) resins, the step of melting the poly(3-hydroxybutyrate) resin in an extruder, then extruding the resin from an annular die, and introducing the resin into water, the annular die temperature being set to a temperature between the melting point peak temperature and the melting point peak end temperature in differential scanning calorimetry analysis of the poly(3-hydroxybutyrate) resin.
- An orienting device for orienting at least one object , comprising: - a fixed frame ; - conveying means defining a conveying surface adapted to contact a bottom portion of said object and convey said object along a first direction (X); and - rotating means selectively actuatable for creating on said bottom portion a differential speed causing the rotation of said object about a first vertical axis (Z) transversal to said first direction (X); said rotating means comprising a contact element , which is either fixed or movable along said first direction (X) with a differential speed relative to said conveying means ; said contact element being selectively movable with respect to said conveying surface between: - a first configuration, in which it protrudes from said conveying surface along said first axis (Z), so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis (Z); and - a second configuration, in which it is offset from said conveying surface along said first axis (Z); characterized in that said contact element is free to oscillate around a second axis (A) parallel to said first direction (X), and in that said contact element is hinged to said frame about at least one third axis (E, B), which is transversal to said first axis (Z) and to said second axis (A). - a fixed frame ; - conveying means defining a conveying surface adapted to contact a bottom portion of said object and convey said object along a first direction (X); and - rotating means selectively actuatable for creating on said bottom portion a differential speed causing the rotation of said object about a first vertical axis (Z) transversal to said first direction (X); said rotating means comprising a contact element , which is either fixed or movable along said first direction (X) with a differential speed relative to said conveying means ; said contact element being selectively movable with respect to said conveying surface between: - a first configuration, in which it protrudes from said conveying surface along said first axis (Z), so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis (Z); and - a second configuration, in which it is offset from said conveying surface along said first axis (Z); - a first configuration, in which it protrudes from said conveying surface along said first axis (Z), so as to contact, in use, said bottom portion of said object and to cause the rotation of said object about said first axis (Z); and - a second configuration, in which it is offset from said conveying surface along said first axis (Z); characterized in that said contact element is free to oscillate around a second axis (A) parallel to said first direction (X), and in that said contact element is hinged to said frame about at least one third axis (E, B), which is transversal to said first axis (Z) and to said second axis (A).
A data retention device, comprising a dedicated storage module , an encryption module and a lock fastener module wherein: the dedicated storage module comprises a data plug , a locking hole , a control element , a storage element and a substrate which is electrically connected to all components in the dedicated storage module; the encryption module comprises a data socket , an external component , an encryption component , a power source component and a printed circuit board which is electrically connected to all components in the encryption module; the lock fastener module comprises a locking element, element , a power element and a fingerprint switch wherein the locking element is driven and shifted to another position by the power element energized from the power source component; wherein the power source component is activated by the fingerprint switch; the encryption module is electrically connected to the dedicated storage module through the data socket when the data plug is inserted into the data socket and the locking element is fixed at the locking hole; the external component of the encryption module is configured to electrically connect to an external device and to access classified information which will be encrypted by the encryption component and saved in the storage element. the dedicated storage module comprises a data plug , a locking hole , a control element , a storage element and a substrate which is electrically connected to all components in the dedicated storage module; the encryption module comprises a data socket , an external component , an encryption component , a power source component and a printed circuit board which is electrically connected to all components in the encryption module; the lock fastener module comprises a locking element, element , a power element and a fingerprint switch wherein the locking element is driven and shifted to another position by the power element energized from the power source component; wherein the power source component is activated by the fingerprint switch; the encryption module is electrically connected to the dedicated storage module through the data socket when the data plug is inserted into the data socket and the locking element is fixed at the locking hole; the external component of the encryption module is configured to electrically connect to an external device and to access classified information which will be encrypted by the encryption component and saved in the storage element.
A compound of formula (I): in which: R and R 1 are independently selected from the group consisting of: H, linear C1-C6 alkyl chain, benzyl and acetyl; R 2 is selected from the group consisting of: C1-C20 linear alkyl chain, C3-C10 branched alkyl chain, aryl, heteroaryl and C1-C10 linear alkyl chain substituted by aryl or heteroaryl; R 3 is selected from the group consisting of: halogen, haloalkyl and CN; the two rings shown are optionally and independently of each other replaced with one or more substituents independently selected from the group consisting of: halogen, linear or branched C1-C6 alkyl chain, haloalkyl, haloalkoxyl, CN, NO 2 , NH 2 , carboxylic ester, COOH and SH; or a salt, stereoisomer, solvate or tautomer thereof. R and R 1 are independently selected from the group consisting of: H, linear C1-C6 alkyl chain, benzyl and acetyl; R 2 is selected from the group consisting of: C1-C20 linear alkyl chain, C3-C10 branched alkyl chain, aryl, heteroaryl and C1-C10 linear alkyl chain substituted by aryl or heteroaryl; R 3 is selected from the group consisting of: halogen, haloalkyl and CN; the two rings shown are optionally and independently of each other replaced with one or more substituents independently selected from the group consisting of: halogen, linear or branched C1-C6 alkyl chain, haloalkyl, haloalkoxyl, CN, NO 2 , NH 2 , carboxylic ester, COOH and SH; or a salt, stereoisomer, solvate or tautomer thereof.
An ex vivo hematoma comprising: (a) isolated whole blood; (b) sodium citrate; (c) ecarin; or thrombin and calcium chloride; and (d) bone morphogenetic protein 2 (BMP-2), and wherein the ex vivo hematoma comprises fibrin fibers having a thickness of at least 150-300 nm ± 10%.