mhurhangee/patent-ind-claim-en huggingface dataset:
A scanning projective lensless microscopy, SPLM, imaging system comprising: a transparent layer ; a light detector having a sensing surface , wherein the light detector comprises pixels on or within a surface layer of the light detector at the sensing surface , further wherein the transparent layer is disposed between the sensing surface and a specimen surface of the transparent layer on which the specimen is located during operation; and a scanning illumination source configured to provide illumination to the specimen from a plurality of different illumination angles; wherein the light detector is configured to receive light transmitted through the specimen located on the transparent layer and is configured to capture image data of a sequence of sub-pixel shifted projection images of the specimen while the specimen located on the transparent layer is illuminated with light from the illumination source incident on the specimen sequentially from the plurality of different illumination angles, wherein the image data of each one of the sequence of sub-pixel shifted projection images is captured at a single sampling time while the specimen is illuminated from a different one of the plurality of different illumination angles, such that each one of the sequence of sub-pixel shifted projection images is based on light transmitted through the specimen from a different one of the plurality of different illumination angles; and a processor configured to reconstruct a sub-pixel resolution image of the specimen using the image data from the sequence of sub-pixel shifted projection images of the specimen . a transparent layer ; a light detector having a sensing surface , wherein the light detector comprises pixels on or within a surface layer of the light detector at the sensing surface , further wherein the transparent layer is disposed between the sensing surface and a specimen surface of the transparent layer on which the specimen is located during operation; and a scanning illumination source configured to provide illumination to the specimen from a plurality of different illumination angles; wherein the light detector is configured to receive light transmitted through the specimen located on the transparent layer and is configured to capture image data of a sequence of sub-pixel shifted projection images of the specimen while the specimen located on the transparent layer is illuminated with light from the illumination source incident on the specimen sequentially from the plurality of different illumination angles, wherein the image data of each one of the sequence of sub-pixel shifted projection images is captured at a single sampling time while the specimen is illuminated from a different one of the plurality of different illumination angles, such that each one of the sequence of sub-pixel shifted projection images is based on light transmitted through the specimen from a different one of the plurality of different illumination angles; and a processor configured to reconstruct a sub-pixel resolution image of the specimen using the image data from the sequence of sub-pixel shifted projection images of the specimen .
A process of producing an antimicrobial coating on a glass substrate wherein the resultant coated glass substrate provides at least a 2 log reduction against gram positive and/or gram negative bacteria within 2 hours at 37° C, the process comprising the steps of: i) providing a glass substrate having a first surface and a second surface; ii) providing a silicon containing solution and a particle containing solution, wherein the particle containing solution comprises metal particles and/or metal agglomerates; and wherein the metal particles and/or metal agglomerates comprise copper; and wherein the metal particles comprise a size range of from 10nm to 150nm, and wherein the metal agglomerates comprise a size range of from 1μm to 4μm; and iii) mixing together the silicon containing solution and the particle containing solution to form a silica coating composition; iv) contacting at least said first surface of the substrate with the silica coating composition to deposit a layer of silica on the glass substrate; and v) curing the silica coating composition deposited on the glass substrate to form a silica matrix coating layer, wherein the particles are deposited on and/or within the silica matrix coating layer in an amount of from 0.1 to 20 % by weight, and wherein the silica matrix coating layer is deposited to a thickness in the range 5nm to 200nm. i) providing a glass substrate having a first surface and a second surface; ii) providing a silicon containing solution and a particle containing solution, wherein the particle containing solution comprises metal particles and/or metal agglomerates; and wherein the metal particles and/or metal agglomerates comprise copper; and wherein the metal particles comprise a size range of from 10nm to 150nm, and wherein the metal agglomerates comprise a size range of from 1μm to 4μm; and iii) mixing together the silicon containing solution and the particle containing solution to form a silica coating composition; iv) contacting at least said first surface of the substrate with the silica coating composition to deposit a layer of silica on the glass substrate; and v) curing the silica coating composition deposited on the glass substrate to form a silica matrix coating layer, wherein the particles are deposited on and/or within the silica matrix coating layer in an amount of from 0.1 to 20 % by weight, and wherein the silica matrix coating layer is deposited to a thickness in the range 5nm to 200nm.
A bilayer tablet comprising atazanavir and cobicistat and a pharmaceutically acceptable carrier, said tablet comprising less than or equal to about 0.2% of degradant or
A method for secure wireless communication at a wireless local area network, WLAN, apparatus associated with a network, the method comprising: Receiving a wireless local area network, WLAN, termination point addition request from a wireless wide area network, WWAN, node, the WLAN termination point addition request including a cryptographic key and a user equipment identifier identifying a user equipment, wherein a WLAN termination point is a network apparatus associated with a WLAN, and is a part of an access point, AP, or is communicatively coupled to an AP; generating a network-generated first identifier based on the user equipment identifier and the cryptographic key received from the WWAN node; storing the network-generated first identifier at the apparatus and associating the network-generated first identifier with the cryptographic key; receiving an extensible authentication protocol, EAP, identity response from an access point associated with the network, the EAP identity response including a user equipment-generated first identifier; determining that the user equipment-generated first identifier corresponds to the stored network-generated first identifier; generating a master session key, MSK and transmitting an EAP success message and the MSK to the access point. Receiving a wireless local area network, WLAN, termination point addition request from a wireless wide area network, WWAN, node, the WLAN termination point addition request including a cryptographic key and a user equipment identifier identifying a user equipment, wherein a WLAN termination point is a network apparatus associated with a WLAN, and is a part of an access point, AP, or is communicatively coupled to an AP; generating a network-generated first identifier based on the user equipment identifier and the cryptographic key received from the WWAN node; storing the network-generated first identifier at the apparatus and associating the network-generated first identifier with the cryptographic key; receiving an extensible authentication protocol, EAP, identity response from an access point associated with the network, the EAP identity response including a user equipment-generated first identifier; determining that the user equipment-generated first identifier corresponds to the stored network-generated first identifier; generating a master session key, MSK and transmitting an EAP success message and the MSK to the access point.
A kit of parts for use in treating a periodontal disease, selected from the group consisting of periimplantitis, gingivitis, periodontitis and periimplant mucositis, comprising: a) a 0.01 to 1 weight% sodium hypochlorite (NaClO) solution; b) a 0.01 to 1 weight%, chlorhexidine (CHX) solution, wherein the solutions are sequentially administered to a site of microbial infection in a patient so that the sodium hypochlorite (NaClO) solution is administered before the chlorhexidine (CHX) solution. a) a 0.01 to 1 weight% sodium hypochlorite (NaClO) solution; b) a 0.01 to 1 weight%, chlorhexidine (CHX) solution,
A control arrangement for controlling a superheat of a vapour compression system, the vapour compression system comprising a compressor, a condenser, an expansion device and an evaporator arranged along a refrigerant path, the control arrangement comprising: - a first sensor arranged to measure a first control parameter of refrigerant flowing in the refrigerant path, - a second sensor arranged to measure a second control parameter of refrigerant flowing in the refrigerant path, wherein the superheat value of the vapour compression system can be derived by means of the first control parameter and the second control parameter, - a low pass filter arranged to receive a signal from the first sensor , said low pass filter being designed in accordance with the dynamic behaviour of the evaporator and/or of the first sensor , - a first controller arranged to receive a signal directly from the first sensor , said first controller comprising a proportional differential (PD) element, - a subtraction element arranged to receive input from the second sensor and from the low pass filter , said subtraction element being arranged to derive a superheat value, based on the received input, - a second controller arranged to receive the superheat value derived by the subtraction element , and to supply a control signal, based on the derived superheat value, and in accordance with a reference superheat value, - a summation element arranged to receive input from the first controller and from the second controller , said summation element being arranged to supply a control signal for controlling opening degree of the expansion device on the basis of the received input. - a first sensor arranged to measure a first control parameter of refrigerant flowing in the refrigerant path, - a second sensor arranged to measure a second control parameter of refrigerant flowing in the refrigerant path, wherein the superheat value of the vapour compression system can be derived by means of the first control parameter and the second control parameter, - a low pass filter arranged to receive a signal from the first sensor , said low pass filter being designed in accordance with the dynamic behaviour of the evaporator and/or of the first sensor , - a first controller arranged to receive a signal directly from the first sensor , said first controller comprising a proportional differential (PD) element, - a subtraction element arranged to receive input from the second sensor and from the low pass filter , said subtraction element being arranged to derive a superheat value, based on the received input, - a second controller arranged to receive the superheat value derived by the subtraction element , and to supply a control signal, based on the derived superheat value, and in accordance with a reference superheat value, - a summation element arranged to receive input from the first controller and from the second controller , said summation element being arranged to supply a control signal for controlling opening degree of the expansion device on the basis of the received input.
A method of eddy-current testing of electrically conductive objects , based on the excitation of eddy current within an electrically conductive object by using a constant magnetic field, then scanning said electrically conductive object by using an eddy-current transducer comprising at least one constant-field inductor and at least one electromagnetic field variation sensor for measuring the variation of electromagnetic field while moving the eddy-current transducer and electrically conductive object , and then registering the signals corresponding to the electromagnetic field variation, according to which the presence of faults is established, characterized in that the excitation of eddy currents within the electrically conductive object is performed by using the surface-type eddy-current transducer with the at least one electromagnetic field variation sensor is mounted at only one of the poles of the at least one constant-field inductor and is integrated with it, while the excitation of eddy currents is realised using the constant magnetic field of the at least one constant-field inductor going through the at least one electromagnetic field variation sensor for measuring the variation of magnetic field, wherein the scanning is performed by moving the electrically conductive object with respect to the eddy-current transducer and/or by moving said eddy-current transducer with respect to said electrically conductive object.
A liquid discharge head comprising: a flow path member including a plurality of discharge holes , a plurality of pressure chambers linked to the respective discharge holes , a plurality of first common flow paths , and a plurality of second common flow paths ; and a plurality of pressure sections that press the respective pressure chambers , wherein when viewed in a plan view, the first common flow paths and the second common flow paths extend in a first direction, and are alternately arranged in a second direction that crosses the first direction, the first common flow paths are opened to outside of the flow path member at ends in the first direction, are not opened to outside of the flow path member at ends in a third direction that is opposite to the first direction, the second common flow path is opened to outside of the flow path member at ends in the third direction, and are not opened to outside of the flow path member at ends in the first direction, the plurality of pressure chambers are disposed between the first common flow paths and the second common flow paths that are adjacent to each other in the second direction, and the first common flow paths and the second common flow paths are linked via the plurality of the pressure chambers , in the first direction, given that a range in which the first common flow path is linked to the second common flow path via the plurality of the pressure chambers is a connection range, the first common flow paths and the second common flow paths are linked via connection flow paths outside the connection range in the first direction, the flow path member is configured by laminating a plurality of flat plates (4a to 4l) having at least one of holes and grooves, the flow path member includes a first plate having at least one of the holes and grooves that constitute the connection flow paths and having at least one of the holes and grooves that constitute the first common flow path and second common flow paths , and a second plate having at least one of the holes and grooves that constitute the connection flow paths and having no holes and grooves that constitute the first common flow paths and second common flow paths .
Method for filtering infrastructure description messages , packaged in data packets , that are sent in a vehicle ad hoc network besides position information messages for locating individual subscriber nodes among one another in order to describe the state of the vehicle ad hoc network and/or of a road on which the subscriber nodes are situated, comprising: - receiving one of the infrastructure description messages at a subscriber node , - identifying a type of the received infrastructure description message , - rating the received infrastructure description message in respect of a need for reaction, and - filtering the rated infrastructure description message on the basis of a predetermined criterion for the need for reaction, characterized in that the types of infrastructure description messages are the so-called decentralized environmental notification message (DENM) according to the European standard ETSI EN 302 637-3, road topology message (MAP, TOPO) for describing the infrastructure in the form of the topology of the road and signal phase and timing (SPAT) message for describing the infrastructure in the form of states of traffic lights and the following criteria are used depending on the type of the infrastructure description message : - repeated reception in the case of a road topology message (MAP, TOPO) and/or a decentralized environmental notification message (DENM), a repeatedly received message being filtered; and - a configured period of time, during which further arriving signal phase and timing messages from a combination of traffic lights are filtered if a signal phase and timing message has already been received from this combination, in the case of a signal phase and timing (SPAT) message. - receiving one of the infrastructure description messages at a subscriber node , - identifying a type of the received infrastructure description message , - rating the received infrastructure description message in respect of a need for reaction, and - filtering the rated infrastructure description message on the basis of a predetermined criterion for the need for reaction, characterized in that the types of infrastructure description messages are the so-called decentralized environmental notification message (DENM) according to the European standard ETSI EN 302 637-3, road topology message (MAP, TOPO) for describing the infrastructure in the form of the topology of the road and signal phase and timing (SPAT) message for describing the infrastructure in the form of states of traffic lights and the following criteria are used depending on the type of the infrastructure description message : - repeated reception in the case of a road topology message (MAP, TOPO) and/or a decentralized environmental notification message (DENM), a repeatedly received message being filtered; and - a configured period of time, during which further arriving signal phase and timing messages from a combination of traffic lights are filtered if a signal phase and timing message has already been received from this combination, in the case of a signal phase and timing (SPAT) message.
Packaging device having: - a closure cap having a tubular skirt provided on its inner surface with at least one thread element and with at least one relief that protrudes towards the interior of the cap, - a container provided with a neck on which the closure cap is mounted, this neck having: ∘ at least one screw thread in which the thread element can engage in order to allow the cap to be screwed onto the neck, ∘ at least one housing , the relief on the cap being configured to snap-fit in the housing at the end of a movement for pre-positioning the cap on the neck, wherein the cap at the end of the pre-positioning movement is not in its normal use position and has to be screwed on further in order to reach this position, characterized in that the relief is separate from the thread element . - a closure cap having a tubular skirt provided on its inner surface with at least one thread element and with at least one relief that protrudes towards the interior of the cap, - a container provided with a neck on which the closure cap is mounted, this neck having: ∘ at least one screw thread in which the thread element can engage in order to allow the cap to be screwed onto the neck, ∘ at least one housing , ∘ at least one screw thread in which the thread element can engage in order to allow the cap to be screwed onto the neck, ∘ at least one housing , the relief on the cap being configured to snap-fit in the housing at the end of a movement for pre-positioning the cap on the neck, wherein the cap at the end of the pre-positioning movement is not in its normal use position and has to be screwed on further in order to reach this position, characterized in that the relief is separate from the thread element .
A composition, comprising: a thermosetting resin ; a plurality of polymer nanoparticles wherein the polymer nanoparticles include a first polymer nanoparticle and a second polymer nanoparticle having a different configuration than the first polymer nanoparticle wherein the first polymer nanoparticle dissolves at a different temperature and time than the second polymer nanoparticle; and at least some of the polymer nanoparticles being configured to release either a catalyst or a hardener during a resin curing process, the catalyst or hardener being configured to alter a reaction rate of the resin; wherein: at least some of the polymer nanoparticles include core-sheath nanoparticles each comprising a sheath encapsulating a core containing the catalyst or the hardener ; the core-sheath nanoparticles include the first polymer nanoparticle and the second polymer nanoparticle; and either the first polymer nanoparticle has a first sheath thickness, the second polymer nanoparticle has a second sheath thickness different than the first sheath thickness, and the first sheath thickness has a different dissolution time in the resin than the second sheath thickness. a thermosetting resin ; a plurality of polymer nanoparticles wherein the polymer nanoparticles include a first polymer nanoparticle and a second polymer nanoparticle having a different configuration than the first polymer nanoparticle wherein the first polymer nanoparticle dissolves at a different temperature and time than the second polymer nanoparticle; and at least some of the polymer nanoparticles being configured to release either a catalyst or a hardener during a resin curing process, the catalyst or hardener being configured to alter a reaction rate of the resin; wherein: at least some of the polymer nanoparticles include core-sheath nanoparticles each comprising a sheath encapsulating a core containing the catalyst or the hardener ; the core-sheath nanoparticles include the first polymer nanoparticle and the second polymer nanoparticle; and either the first polymer nanoparticle has a first sheath thickness, the second polymer nanoparticle has a second sheath thickness different than the first sheath thickness, and the first sheath thickness has a different dissolution time in the resin than the second sheath thickness. at least some of the polymer nanoparticles include core-sheath nanoparticles each comprising a sheath encapsulating a core containing the catalyst or the hardener ; the core-sheath nanoparticles include the first polymer nanoparticle and the second polymer nanoparticle; and either the first polymer nanoparticle has a first sheath thickness, the second polymer nanoparticle has a second sheath thickness different than the first sheath thickness, and the first sheath thickness has a different dissolution time in the resin than the second sheath thickness.