mhurhangee/patent-ind-claim-en huggingface dataset:
A transfer tape comprising: a carrier; a template layer having a first surface applied to the carrier and having a second surface opposite the first surface, wherein the second surface comprises a non-planar structured surface which includes a release coating; and a patterned-cured backfill layer comprising: nanoparticles; and polysiloxane resins, polysilazanes, silsesquioxanes of bridge or ladder-type, T-resin methyl silsesquioxane, T-Q resin methyl silsesquioxane, hydrogen silsesquioxane, copolymer of methyltrimethoxysilane and bistriethoxysilylethane, silicones, silicone hybrid materials, polyimides or benzocylclobutenes, the backfill layer disposed upon and conforming to the non-planar structured surface of the release coating; and wherein the patterned cured backfill layer comprises regions of cured backfill; and uncured backfill is disposed between the regions of cured backfill, the uncured backfill configured to reflow and form crosslinked unstructured regions in contact with the regions of cured backfill after removal of the template layer. a carrier; a template layer having a first surface applied to the carrier and having a second surface opposite the first surface, wherein the second surface comprises a non-planar structured surface which includes a release coating; and a patterned-cured backfill layer comprising: nanoparticles; and polysiloxane resins, polysilazanes, silsesquioxanes of bridge or ladder-type, T-resin methyl silsesquioxane, T-Q resin methyl silsesquioxane, hydrogen silsesquioxane, copolymer of methyltrimethoxysilane and bistriethoxysilylethane, silicones, silicone hybrid materials, polyimides or benzocylclobutenes, the backfill layer disposed upon and conforming to the non-planar structured surface of the release coating; and nanoparticles; and polysiloxane resins, polysilazanes, silsesquioxanes of bridge or ladder-type, T-resin methyl silsesquioxane, T-Q resin methyl silsesquioxane, hydrogen silsesquioxane, copolymer of methyltrimethoxysilane and bistriethoxysilylethane, silicones, silicone hybrid materials, polyimides or benzocylclobutenes, the backfill layer disposed upon and conforming to the non-planar structured surface of the release coating; and wherein the patterned cured backfill layer comprises regions of cured backfill; and uncured backfill is disposed between the regions of cured backfill, the uncured backfill configured to reflow and form crosslinked unstructured regions in contact with the regions of cured backfill after removal of the template layer.
An association of (i) a chimeric polyepitope with (ii) a distinct immunogenic polypeptide, wherein: (i) the chimeric polyepitope, whose size is less than 600 amino acid residues, comprises the following fragments of (a), (b), (c) and (d) assembled in a fusion polypeptide, wherein the fragments of (a), (b), (c) and (d) are directly or indirectly fused in this order: (a) a first fragment of the non-structural (NS) NS3 protein of the dengue virus (DENV) serotype 1 (DENV1) having an amino acid sequence as defined in SEQ ID NO: 6, (b) a second fragment of the NS3 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 9, (c) a fragment of the NS4b protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 12, (d) a fragment of the NS5 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 15, and (ii) the distinct immunogenic polypeptide consists of chimeric DENV antigens composed of the fusion of the envelope domain III (EDIII) polypeptides representative of the four DENV serotypes, fused to the ectodomain of the membrane protein (ectoM) of DENV1 as tetravalent EDIII/ectoM, and has the amino acid sequence as defined in SEQ ID NO: 145. (i) the chimeric polyepitope, whose size is less than 600 amino acid residues, comprises the following fragments of (a), (b), (c) and (d) assembled in a fusion polypeptide, wherein the fragments of (a), (b), (c) and (d) are directly or indirectly fused in this order: (a) a first fragment of the non-structural (NS) NS3 protein of the dengue virus (DENV) serotype 1 (DENV1) having an amino acid sequence as defined in SEQ ID NO: 6, (b) a second fragment of the NS3 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 9, (c) a fragment of the NS4b protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 12, (d) a fragment of the NS5 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 15, and (a) a first fragment of the non-structural (NS) NS3 protein of the dengue virus (DENV) serotype 1 (DENV1) having an amino acid sequence as defined in SEQ ID NO: 6, (b) a second fragment of the NS3 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 9, (c) a fragment of the NS4b protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 12, (d) a fragment of the NS5 protein of DENV1 having an amino acid sequence as defined in SEQ ID NO: 15, and (ii) the distinct immunogenic polypeptide consists of chimeric DENV antigens composed of the fusion of the envelope domain III (EDIII) polypeptides representative of the four DENV serotypes, fused to the ectodomain of the membrane protein (ectoM) of DENV1 as tetravalent EDIII/ectoM, and has the amino acid sequence as defined in SEQ ID NO: 145.
Method for performing work on an underwater pipe , comprising a phase of lowering into the marine environment an apparatus comprising an ultrasound emitting system and at least one ultrasound receiving transducer , an inspection phase along the pipe using the lowered apparatus then, when the inspection phase shows a condition for locating an obstruction at a location along the pipe, a destruction phase of the obstruction at said location using the lowered apparatus, the inspection phase comprising: - arranging an ultrasound inspection source of the ultrasound emitting system and the receiving transducer on either side of the pipe ; - activating the inspection source and recording an ultrasound signal captured by the receiving transducer; and - detecting the condition for locating an obstruction at the location wherein are arranged the inspection source and the receiving transducer in response to the observation of an anomaly in the ultrasound signal captured by the receiving transducer at this location, and the destruction phase comprising: - coupling a power source of the ultrasound emitting system to the pipe at said location; and - activating the power source in order to destroy the obstruction, wherein the inspection source and the power source use the same ultrasound generator and the same transducer , - wideband pulse signals are used during the inspection phase, and - monochromatic signals with a variable frequency are used during the destruction phase. - arranging an ultrasound inspection source of the ultrasound emitting system and the receiving transducer on either side of the pipe ; - activating the inspection source and recording an ultrasound signal captured by the receiving transducer; and - detecting the condition for locating an obstruction at the location wherein are arranged the inspection source and the receiving transducer in response to the observation of an anomaly in the ultrasound signal captured by the receiving transducer at this location, - coupling a power source of the ultrasound emitting system to the pipe at said location; and - activating the power source in order to destroy the obstruction, wherein the inspection source and the power source use the same ultrasound generator and the same transducer , - wideband pulse signals are used during the inspection phase, and - monochromatic signals with a variable frequency are used during the destruction phase.
A water dividing device , comprising: a valve body provided with a water inlet (A), a first water outlet (B) and a second water outlet (C); a switching mechanism movably provided in the valve body and configured for switching between the water inlet (A) being communicated with the first water outlet (B) and the water inlet (A) being communicated with the second water outlet (C); a power mechanism at least partially provided in the valve body and comprising a rotary rod and a pusher cooperated with the rotary rod , wherein one end of the pusher abuts against the switching mechanism , and the other end of the pusher abuts against the rotary rod ; the rotary rod drives the pusher by its own rotating movement to move along a straight line so as to push the switching mechanism to move; characterized in that the pusher and the rotary rod have opposite ends, one of which is provided with a helical sliding way , the other is provided with an ejection rod , and the helical sliding way extends along both a circumferential direction and a axial direction of the pusher , and the ejection rod is capable of sliding along the helical sliding way . a valve body provided with a water inlet (A), a first water outlet (B) and a second water outlet (C); a switching mechanism movably provided in the valve body and configured for switching between the water inlet (A) being communicated with the first water outlet (B) and the water inlet (A) being communicated with the second water outlet (C); a power mechanism at least partially provided in the valve body and comprising a rotary rod and a pusher cooperated with the rotary rod , wherein one end of the pusher abuts against the switching mechanism , and the other end of the pusher abuts against the rotary rod ; the rotary rod drives the pusher by its own rotating movement to move along a straight line so as to push the switching mechanism to move; characterized in that the pusher and the rotary rod have opposite ends, one of which is provided with a helical sliding way , the other is provided with an ejection rod , and the helical sliding way extends along both a circumferential direction and a axial direction of the pusher , and the ejection rod is capable of sliding along the helical sliding way .
Sensor carrier , in particular for use in a motor vehicle in-situ control device, comprising a carrier plate for accommodating and positioning at least one sensor and a flexible conductor foil on the carrier plate as an electrical connection between the sensor on the carrier plate and on the control device, wherein a strip-shaped extension leads away from the carrier plate in such a way that when the control device is installed in the motor vehicle the sensor which is arranged at the end of the extension is positioned at its correct sensing position, characterized in that the carrier plate is embodied as a piece of stamped sheet metal, and in that the extension which is formed on the piece of stamped sheet metal is bent in order to move the sensor to its correct sensing position.
An installation for entangling and texturizing fibres with a first and a second circulating belts, which are disposed at least partially parallel for entangling and texturizing fibres to form a non-woven, and thus form a texturizing area , wherein at least one belt, as a counter-belt , is formed with a plurality of patterning openings , and at least one water bar for hydro-entangling the fibres is disposed within the counter-belt in the texturizing area , wherein the texturizing area has a length of at least 0.2 m and the counter-belt includes micro-openings between the patterning openings , wherein the counter-belt includes 3 to 100 micro-openings per square centimetre in a regular or arbitrary arrangement between the patterning openings , characterized in that the micro-openings have a hydraulic diameter of 0.2 to 0.4 mm and the at least one water bar is operated at a pressure of 30 to 80 bars, preferably of 60 bars.
A method for pushing a resource, comprising: obtaining a collection of users to which a resource is to be pushed, wherein the collection comprises a plurality of users; obtaining (102; 203; 304) respective predicted conversion rates of the resource for the plurality of users, wherein the predicted conversion rate is a predicted probability that after the resource is pushed to the user, the user clicks on the resource and completes a specified operation on a landing page corresponding to the resource; obtaining (103; 204; 305; 406) user groups by dividing the plurality of users into groups based on respective predicted conversion rates for the plurality of users, wherein the user groups correspond to different conversion rate ranges; and for each user group, selecting (104; 205; 306; 407) a target user from the user group based on a real conversion rate related to pushed users corresponding to the conversion rate range of the user group, and pushing the resource to the target user, wherein the pushed users are users that have been pushed with the resource. obtaining a collection of users to which a resource is to be pushed, wherein the collection comprises a plurality of users; obtaining (102; 203; 304) respective predicted conversion rates of the resource for the plurality of users, wherein the predicted conversion rate is a predicted probability that after the resource is pushed to the user, the user clicks on the resource and completes a specified operation on a landing page corresponding to the resource; obtaining (103; 204; 305; 406) user groups by dividing the plurality of users into groups based on respective predicted conversion rates for the plurality of users, wherein the user groups correspond to different conversion rate ranges; and for each user group, selecting (104; 205; 306; 407) a target user from the user group based on a real conversion rate related to pushed users corresponding to the conversion rate range of the user group, and pushing the resource to the target user, wherein the pushed users are users that have been pushed with the resource.
An air conditioner comprising: an outdoor unit which comprises a first heat exchanger ; an indoor unit which comprises a second heat exchanger ; an accumulator configured to separate a refrigerant discharged from the first heat exchanger and the indoor unit into a liquid refrigerant and a gas refrigerant; a compressor configured to compress the gas refrigerant discharged from the accumulator and to supply the compressed gas refrigerant to the first heat exchanger ; and a pump configured to pressurize the liquid refrigerant discharged from the accumulator and to supply the pressurized liquid refrigerant to the indoor unit characterized by , an expansion valve provided at a flow path which connects the first heat exchanger to the accumulator and configured to be adjusted to an opening rate according to a supercooling degree of a refrigerant discharged from the first heat exchanger ; and a control valve provided at a flow path which connects the indoor unit to the accumulator and configured to be opened when an outdoor temperature is lower, by a reference or more, than an indoor temperature. an outdoor unit which comprises a first heat exchanger ; an indoor unit which comprises a second heat exchanger ; an accumulator configured to separate a refrigerant discharged from the first heat exchanger and the indoor unit into a liquid refrigerant and a gas refrigerant; a compressor configured to compress the gas refrigerant discharged from the accumulator and to supply the compressed gas refrigerant to the first heat exchanger ; and a pump configured to pressurize the liquid refrigerant discharged from the accumulator and to supply the pressurized liquid refrigerant to the indoor unit characterized by , an expansion valve provided at a flow path which connects the first heat exchanger to the accumulator and configured to be adjusted to an opening rate according to a supercooling degree of a refrigerant discharged from the first heat exchanger ; and a control valve provided at a flow path which connects the indoor unit to the accumulator and configured to be opened when an outdoor temperature is lower, by a reference or more, than an indoor temperature.
A method of applying a metal comprising titanium to a substrate, the method comprising: nitriding the surface of metal powder particles comprising titanium by contacting the particles with a first gas comprising nitrogen in a fluidized bed reactor; and depositing the metal powder particles onto the substrate with cold spray deposition using a second gas. nitriding the surface of metal powder particles comprising titanium by contacting the particles with a first gas comprising nitrogen in a fluidized bed reactor; and depositing the metal powder particles onto the substrate with cold spray deposition using a second gas.
A method for managing co-authoring conflicts, the method comprising: providing simultaneous access to a document by a plurality of users ; receiving an indication to save a first change made to the document, wherein the first change is made by a first user ; saving the first change to the document; receiving an indication to save an additional change made to the document, wherein the additional change is made by a second user ; determining if the additional change made to the document conflicts with the first change made to the document; and if a conflict is determined, saving the conflicting change as a conflict comment in the document, wherein the first user and second user are allowed to continue editing the document without resolving the conflict; and providing commenting functionalities for allowing a user to provide a comment, reply, or a message associated with a conflicting change. providing simultaneous access to a document by a plurality of users ; receiving an indication to save a first change made to the document, wherein the first change is made by a first user ; saving the first change to the document; receiving an indication to save an additional change made to the document, wherein the additional change is made by a second user ; determining if the additional change made to the document conflicts with the first change made to the document; and if a conflict is determined, saving the conflicting change as a conflict comment in the document, wherein the first user and second user are allowed to continue editing the document without resolving the conflict; and providing commenting functionalities for allowing a user to provide a comment, reply, or a message associated with a conflicting change.
A method for the manufacture of a pharmaceutically acceptable composition comprising an oil-in-water emulsion, the method comprising the step of (i) combining the first emulsion's components in a mixing vessel; (ii) formation of a first emulsion having a first average oil droplet size using a rotor-stator homogenizer, wherein the first emulsion is formed by a type II circulation of transferring the first emulsion components from a first container to a second container through a homogenizer, and then returning them from the second container to the first container through the same homogenizer, wherein substantially all of the emulsion components from the first container are passed through the homogenizer into the second container, and then substantially all of the emulsion components from the second container are passed through the homogenizer back into the first container.
Method for communication between two utility vehicles , wherein - the communication takes place by means of an optical data transmission (s(D1), s(D2)), - a control unit of a first utility vehicle generates activation signals (s_st1) in dependence on the data (D1) to be transmitted, - a work light (L1) of the first utility vehicle is activated by means of the activation signals (s_st1), and - the activated work light (L1) emits light signals (s(D1)) to the second utility vehicle , which represent the transmission data (D1), characterized in that the control unit of the first utility vehicle determines a light intensity L(pos2) illuminating the region of the second utility vehicle without dazzling, in dependence on received transmission data (D2) representing a current geographical position (pos2) of the second utility vehicle , wherein the control unit activates the work light (L1) using corresponding control signals (s_L1), which generate the desired light intensity L(pos2). - the communication takes place by means of an optical data transmission (s(D1), s(D2)), - a control unit of a first utility vehicle generates activation signals (s_st1) in dependence on the data (D1) to be transmitted, - a work light (L1) of the first utility vehicle is activated by means of the activation signals (s_st1), and - the activated work light (L1) emits light signals (s(D1)) to the second utility vehicle , which represent the transmission data (D1),
An ophthalmic formulation, wherein the ophthalmic formulation is an aqueous suspension comprising a therapeutically effective amount of Nintedanib particles or particles of a pharmaceutically acceptable salt of Nintedanib, a surfactant selected from a group consisting of poloxamers, Tween 80, Tween 20 and tyloxapol, and a viscosity regulator selected from a group consisting of Hydroxypropyl Methylcellulose (HPMC) and Sodium Carboxymethylcellulose.
A call processing method for joining, by using a terminal device, a conference held by using a multipoint control unit, MCU, which, together with the terminal device, constitutes a video conference system in a system further comprising a data conference server connected to a gateway via which the terminal accesses the MCU, the method comprising: receiving , by the gateway, a call initiation for establishing a first call between the terminal device and the gateway wherein the call initiation is initiated by the terminal device; negotiating , by the gateway, with the terminal device, to establish the first call between the gateway and the terminal device and determine a media type of the first call; and adding , by the gateway, the determined media type of the first call to a call established between the gateway and the MCU if the established call is of any terminal in a set of different terminal devices having a binding relationship with the terminal device and includes the determined media type, wherein the binding relationship is set by or received from a user and is between the terminal devices, used by the user, in the set of terminal devices. receiving , by the gateway, a call initiation for establishing a first call between the terminal device and the gateway wherein the call initiation is initiated by the terminal device; negotiating , by the gateway, with the terminal device, to establish the first call between the gateway and the terminal device and determine a media type of the first call; and adding , by the gateway, the determined media type of the first call to a call established between the gateway and the MCU if the established call is of any terminal in a set of different terminal devices having a binding relationship with the terminal device and includes the determined media type, wherein the binding relationship is set by or received from a user and is between the terminal devices, used by the user, in the set of terminal devices.
A noise reduction and heat dissipation structure, comprising a motor housing , a motor , a battery housing and a battery pack , and the battery pack being located at an end of the motor , characterized in that the battery pack has a hollow annular structure, and a gap is provided between the battery pack and the battery housing ; and a hollow channel of the battery pack and the gap form an airflow channel, an outlet of the airflow channel is an exhaust port , and the exhaust port is provided on the motor housing .