mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a preformed material , the method comprising: depositing and bonding at least a portion of a fiber roving (1100, 1100C1, 1100C2, 1100C3, 2010, 2020, 2030, 2040, 2050, 2060, 2070, 2080) onto a substrate, characterised in that the fiber roving includes parallel fibers and the fiber roving has one or more folds in a direction parallel to the direction of the fibers. depositing and bonding at least a portion of a fiber roving (1100, 1100C1, 1100C2, 1100C3, 2010, 2020, 2030, 2040, 2050, 2060, 2070, 2080) onto a substrate, characterised in that the fiber roving includes parallel fibers and the fiber roving has one or more folds in a direction parallel to the direction of the fibers.
A method comprising: monitoring a status of a button installed on a detector , the detector comprising a detection chamber and being a detector capable of detecting smoke or fire or hazardous gases in the detection chamber; detecting a change in the status of the button ; issuing a notification on detecting the change in status of the button ; and transmitting the notification to a control panel ; wherein there is a change in status of the button when a cap is placed on the detector , and wherein the cap is designed to be fixed on the detector such that the button changes status when the cap is fixed on the detector ; characterized in that when the cap is placed on the detector , air particles cannot enter the detection chamber thereby disabling the detector from detecting smoke or fire or hazardous gas. monitoring a status of a button installed on a detector , the detector comprising a detection chamber and being a detector capable of detecting smoke or fire or hazardous gases in the detection chamber; detecting a change in the status of the button ; issuing a notification on detecting the change in status of the button ; and transmitting the notification to a control panel ; wherein there is a change in status of the button when a cap is placed on the detector , and wherein the cap is designed to be fixed on the detector such that the button changes status when the cap is fixed on the detector ; characterized in that when the cap is placed on the detector , air particles cannot enter the detection chamber thereby disabling the detector from detecting smoke or fire or hazardous gas.
An oxygenator for an extracorporeal ventilation system, the oxygenator comprising a gas passage and a blood passage arranged to allow gas exchange of an oxygenation gas supply with blood via a gas-blood interface , wherein the gas passage leads from a gas inlet zone via the gas-blood interface to a gas exhaust zone , and wherein the blood passage leads from a blood inlet via the gas-blood interface to a blood outlet , wherein the oxygenator comprises a supply gas distribution arrangement allowing the oxygenation gas supply to be modulated differently for different interface regions of the gas-blood interface , wherein the different interface regions are arranged successively in blood flow direction for blood directed through the gas-blood interface to pass each interface region, and wherein the supply gas distribution arrangement comprises a plurality of gas inlet ports each suitable for supplying oxygenation gas to the gas inlet zone , characterized in that the gas-blood interface is uniformly distributed within the blood passage. wherein the oxygenator comprises a supply gas distribution arrangement allowing the oxygenation gas supply to be modulated differently for different interface regions of the gas-blood interface , wherein the different interface regions are arranged successively in blood flow direction for blood directed through the gas-blood interface to pass each interface region, and wherein the supply gas distribution arrangement comprises a plurality of gas inlet ports each suitable for supplying oxygenation gas to the gas inlet zone , characterized in that the gas-blood interface is uniformly distributed within the blood passage.
A flat plate-shaped piezoelectric substrate comprising: a piezoelectric ceramic layer ; a plurality of first electrodes and one or more second electrodes disposed on one main surface of the piezoelectric ceramic layer ; a third electrode disposed on the other main surface of the piezoelectric ceramic layer so as to oppose to the first electrodes ; and a through-conductor penetrating through the piezoelectric ceramic layer and electrically connecting the second electrode and the third electrode , wherein the second electrode comprises a connection portion connected to the through-conductor and a small-width portion having a smaller width than the connection portion when the piezoelectric substrate is viewed from above, characterized in that a bump is formed on the small-width portion . a piezoelectric ceramic layer ; a plurality of first electrodes and one or more second electrodes disposed on one main surface of the piezoelectric ceramic layer ; a third electrode disposed on the other main surface of the piezoelectric ceramic layer so as to oppose to the first electrodes ; and a through-conductor penetrating through the piezoelectric ceramic layer and electrically connecting the second electrode and the third electrode , wherein the second electrode comprises a connection portion connected to the through-conductor and a small-width portion having a smaller width than the connection portion when the piezoelectric substrate is viewed from above, characterized in that a bump is formed on the small-width portion .
A catalyst composition comprising a polymer, wherein the polymer comprises a neodymium compound-derived unit; an alkylating agent-derived unit; and a conjugated diene-based monomer-derived unit, and has a number-average molecular weight of 3,000 g/mol to 10,000 g/mol. wherein the polymer comprises a neodymium compound-derived unit; an alkylating agent-derived unit; and a conjugated diene-based monomer-derived unit, and has a number-average molecular weight of 3,000 g/mol to 10,000 g/mol.
A fastening device (1; 101; 121, 131; 110; 210; 310; 410) comprising - a first part having a first engaging side , - a second part having a second engaging side , wherein the fastening device further comprises at least two sets of individual engaging members (22; 32) configured to engage with each other, wherein each set of engaging members comprises a hook member and a locking member , and wherein - the hook member protrudes from the first engaging side of the first part , and said hook member having an engagement side from which a hook protrudes, - the locking member is pivotably connected to the second part and extends into a recess provided in the second engaging side of the second part , which recess is adapted to receive the hook member for engagement with the locking member , and the locking member is configured to pivot in a direction towards the hook member when the hook member is in engagement with the locking member and a force is applied from the hook member on the locking member, - the fastening device is configured to be fastened to a fabric or a plastic material or a paper material located between the first part and the second part , and characterized in that the hook member is configured to penetrate said fabric or plastic material or paper material. - a first part having a first engaging side , - a second part having a second engaging side , - the hook member protrudes from the first engaging side of the first part , and said hook member having an engagement side from which a hook protrudes, - the locking member is pivotably connected to the second part and extends into a recess provided in the second engaging side of the second part , which recess is adapted to receive the hook member for engagement with the locking member , and the locking member is configured to pivot in a direction towards the hook member when the hook member is in engagement with the locking member and a force is applied from the hook member on the locking member, - the fastening device is configured to be fastened to a fabric or a plastic material or a paper material located between the first part and the second part , and
Process for the realization of a window/door framework for building walls, comprising at least one molding step of a perimeter frame by means of at least one three-dimensional molding device , said perimeter frame comprising a plurality of perimeter sides made in a single monolithic body, characterized in that said three-dimensional molding step comprises: - at least a supplying step of PVC and of at least one solvent in which said PVC is soluble; - at least a mixing step of said PVC and of said solvent to obtain at least a mixture in the liquid phase; - at least a distribution step of said mixture on a deposition plane ; - at least an evaporation step of said solvent from said mixture to obtain at least a layer of PVC of said perimeter frame , said evaporation step being subsequent to said distribution step; and - repeating said distribution step and said evaporation step to obtain a plurality of said overlapped layers of PVC conforming said perimeter frame . - at least a supplying step of PVC and of at least one solvent in which said PVC is soluble; - at least a mixing step of said PVC and of said solvent to obtain at least a mixture in the liquid phase; - at least a distribution step of said mixture on a deposition plane ; - at least an evaporation step of said solvent from said mixture to obtain at least a layer of PVC of said perimeter frame , said evaporation step being subsequent to said distribution step; and - repeating said distribution step and said evaporation step to obtain a plurality of said overlapped layers of PVC conforming said perimeter frame .
An apparatus for detecting a condition of one or more electronic devices, said apparatus comprising: an integrated antenna enclosure having an antenna integrated therewithin; a fixture mounted within a hollow interior of said enclosure, said fixture being configured to receive the one or more electronic devices and connect one or more signals to each of the one or more electronic devices; and a sensor and controller assembly connected to said integrated antenna enclosure and configured to process a signature of an emission of a radiofrequency (RF) energy from the each of one or more electronic devices having said one or more signals connected thereto, wherein said apparatus applies, via said fixture as said one or more signals, at least one modulated signal to at least one of a power pin and a ground pin of the respective electronic device. an integrated antenna enclosure having an antenna integrated therewithin; a fixture mounted within a hollow interior of said enclosure, said fixture being configured to receive the one or more electronic devices and connect one or more signals to each of the one or more electronic devices; and a sensor and controller assembly connected to said integrated antenna enclosure and configured to process a signature of an emission of a radiofrequency (RF) energy from the each of one or more electronic devices having said one or more signals connected thereto, wherein said apparatus applies, via said fixture as said one or more signals, at least one modulated signal to at least one of a power pin and a ground pin of the respective electronic device.
A cutter for hot-cutting a rod , preferably a rod of steel, along a first axis (Y), comprising: - a frame ; - a cutting element , which is fitted to said frame , comprises an arc-shaped cutting surface adapted, in use, to cut said rod , and defines an open seat bounded by said cutting surface ; and - a refrigerating circuit , which is adapted to refrigerate said cutting surface and is defined by said frame ; said refrigerating circuit comprising a chamber , which is fillable with a refrigerating fluid and is thermally coupled with said cutting surface for removing heat from said cutting surface ; characterized in that said chamber is bounded by a first wall , which is arc-shaped, extends on the opposite side of said seat with respect to said cutting surface and with respect to said first axis (Y), and extends parallel to said cutting surface in a cross section taken orthogonal to a second axis (A) orthogonal to said first axis (Y) and along which said rod is, in use, advanced; said seat being coaxial with respect to said second axis (A). - a frame ; - a cutting element , which is fitted to said frame , comprises an arc-shaped cutting surface adapted, in use, to cut said rod , and defines an open seat bounded by said cutting surface ; and - a refrigerating circuit , which is adapted to refrigerate said cutting surface and is defined by said frame ; said refrigerating circuit comprising a chamber , which is fillable with a refrigerating fluid and is thermally coupled with said cutting surface for removing heat from said cutting surface ; characterized in that said chamber is bounded by a first wall , which is arc-shaped, extends on the opposite side of said seat with respect to said cutting surface and with respect to said first axis (Y), and extends parallel to said cutting surface in a cross section taken orthogonal to a second axis (A) orthogonal to said first axis (Y) and along which said rod is, in use, advanced; said seat being coaxial with respect to said second axis (A). said refrigerating circuit comprising a chamber , which is fillable with a refrigerating fluid and is thermally coupled with said cutting surface for removing heat from said cutting surface ; characterized in that said chamber is bounded by a first wall , which is arc-shaped, extends on the opposite side of said seat with respect to said cutting surface and with respect to said first axis (Y), and extends parallel to said cutting surface in a cross section taken orthogonal to a second axis (A) orthogonal to said first axis (Y) and along which said rod is, in use, advanced; said seat being coaxial with respect to said second axis (A).
An isolated antibody or a functional fragment thereof, which binds to an epitope of the Immunodominant Staphylococcal antigen A (IsaA), wherein the functional fragment is a Fab, Fab', F(ab')2 or Fv fragment, wherein the antibody or functional fragment has a heavy chain sequence comprising the sequence of SEQ ID NO:13 and a light chain sequence comprising the sequence of SEQ ID NO:14, and which is conjugated to a radioactive or fluorophore label, for use in a method for the in vivo imaging of Staphylococcus aureus.
A method of detecting a reflection, the method being performed by an apparatus for detecting the reflection, and the method comprising: acquiring an input image of an object , by activating an infrared light source configured to emit infrared rays, wherein the infrared light source and an image acquirer are arranged so that a predetermined angle of 56 degrees is formed by a first direction in which the infrared light source emits a first ray to the object and by a second direction in which the image acquirer receives a second ray from the object ; acquiring a reference image of the object , by deactivating the infrared light source and generated mainly using a visible ray region; generating a difference map by calculating a difference between the input image and the reference image; determining elements of the difference map , the elements having difference values exceeding a threshold; and extracting a reflection region from the input image, the reflection region corresponding to the elements. acquiring an input image of an object , by activating an infrared light source configured to emit infrared rays, wherein the infrared light source and an image acquirer are arranged so that a predetermined angle of 56 degrees is formed by a first direction in which the infrared light source emits a first ray to the object and by a second direction in which the image acquirer receives a second ray from the object ; acquiring a reference image of the object , by deactivating the infrared light source and generated mainly using a visible ray region; generating a difference map by calculating a difference between the input image and the reference image; determining elements of the difference map , the elements having difference values exceeding a threshold; and extracting a reflection region from the input image, the reflection region corresponding to the elements.
A heat conductive sheet having a laminated structure of a plurality of resin layers including a heat-conductive resin layer comprising a platy heat-conductive filler , a sheet major surface being a plane perpendicular to laminated faces of the resin layers , and the major axis of the platy heat-conductive filler being oriented at an angle of 60° or more with respect to the sheet major surface, wherein the heat conductive sheet has an Asker C hardness, of 70 or less, as measured thereon with an Asker rubber durometer type C (manufactured by KOBUNSHI KEIKI CO., LTD.) at 23°C, and characterized in that the resin layers each comprise a resin that is liquid at 20 °C.
Heat exchanger , in particular for a condensation boiler , comprising a casing in which there is housed a helical flow conduit for a liquid, made with a pipe of extruded thermally conductive material, in particular aluminium or an alloy thereof, provided with a pair of facing and essentially mutually parallel fins , which extend from a portion of the outer surface thereof, said pipe being helically wound about a longitudinal axis (A-A) such as to form a sequence of adjacent turns separated by interspaces through which, during use, hot gases, in particular combustion fumes, flow; said heat exchanger further comprising a separation element that divides an inner region of the helical flow conduit into a first portion and a second portion , wherein the separation element prevents, during operation, the hot gases from being able to pass directly from the first region to the second region ; characterised in that said facing fins extending helically, towards the outside with respect to the axis (A-A) of said helical conduit have respective pluralities of through-openings which in at least some consecutive turns of the helical conduit interconnect the region comprised between them and the interspaces defined with respect to the adjacent turns , defining flow paths through said fins , outside said helical conduit , for the hot gases which during use pass through said interspaces ; wherein in each of at least some consecutive turns of the helical conduit said facing fins have, viewed in cross-section transverse to the axis of the pipe : a proximal portion which extends from the pipe away from the longitudinal axis (A-A) of said helical conduit , and a distal portion which extends longitudinally on the opposite side to the facing fin of the same turn , said distal portion being substantially in contact with the corresponding distal portion of the facing fin of the adjacent turn a proximal portion which extends from the pipe away from the longitudinal axis (A-A) of said helical conduit , and a distal portion which extends longitudinally on the opposite side to the facing fin of the same turn , said distal portion being substantially in contact with the corresponding distal portion of the facing fin of the adjacent turn
An optical network system comprising: a master unit ; a plurality of gateway units connected to the master unit ; and an electronic control unit connected to each of the plurality of gateway units , wherein the master unit includes a light source , a signal processing unit , a network control unit , and a photodetector , the signal processing unit is configured to control the light source to generate an optical signal containing an information portion to be read by any one of the plurality of gateway units and a continuous light portion to be written by any one of the plurality of gateway units , the network control unit is configured to designate any one of the plurality of gateway units and to generate an electrical signal regarding whether to read or write information loaded on the optical signal from the light source , the plurality of gateway units are configured to receive the optical signal and the electrical signal, each of the gateway units , when designated by the electrical signal, is configured to read information contained in a corresponding optical signal which corresponds to the electrical signal, or to write information to the continuous light portion in the corresponding optical signal, and to exchange information with the electronic control unit on the basis of information regarding whether to read or write information contained in the electrical signal, and the photodetector is configured to read the information written to the continuous light portion by any one of the gateway units . a master unit ; a plurality of gateway units connected to the master unit ; and an electronic control unit connected to each of the plurality of gateway units , wherein the master unit includes a light source , a signal processing unit , a network control unit , and a photodetector , the signal processing unit is configured to control the light source to generate an optical signal containing an information portion to be read by any one of the plurality of gateway units and a continuous light portion to be written by any one of the plurality of gateway units , the network control unit is configured to designate any one of the plurality of gateway units and to generate an electrical signal regarding whether to read or write information loaded on the optical signal from the light source , the plurality of gateway units are configured to receive the optical signal and the electrical signal, each of the gateway units , when designated by the electrical signal, is configured to read information contained in a corresponding optical signal which corresponds to the electrical signal, or to write information to the continuous light portion in the corresponding optical signal, and to exchange information with the electronic control unit on the basis of information regarding whether to read or write information contained in the electrical signal, and the photodetector is configured to read the information written to the continuous light portion by any one of the gateway units .
A cooling device for a cooling operation of a flat metallic product (S), said cooling device being located in an essentially vertical, ascending or descending, path comprising: - a tank filled with a coolant bath defining a coolant surface , - said tank comprising at least two openings, one on the upper surface and one on the bottom surface , through which said flat metallic product (S) can go, describing a path, - said opening on the bottom surface being equipped with a sealing mean , - two series (18 and 18'), of projecting devices comprising at least an aperture being immersed in said coolant bath, facing each other on each side of said path - said projecting devices being at least partly immersed in said coolant bath , - any two vertically successive projecting devices of a series being separated by a gap , - each series (18 and 18') of projecting devices having an uppermost projecting device (20 and 20') being defined as the closest projecting device to the coolant surface , - at least the uppermost projecting device (20 and 20') on both sides being downwardly inclined of an angle of 20° to 40°compared to the horizontal. - a tank filled with a coolant bath defining a coolant surface , - said tank comprising at least two openings, one on the upper surface and one on the bottom surface , through which said flat metallic product (S) can go, describing a path, - said opening on the bottom surface being equipped with a sealing mean , - two series (18 and 18'), of projecting devices comprising at least an aperture being immersed in said coolant bath, facing each other on each side of said path - said projecting devices being at least partly immersed in said coolant bath , - any two vertically successive projecting devices of a series being separated by a gap , - each series (18 and 18') of projecting devices having an uppermost projecting device (20 and 20') being defined as the closest projecting device to the coolant surface , - at least the uppermost projecting device (20 and 20') on both sides being downwardly inclined of an angle of 20° to 40°compared to the horizontal.