mhurhangee/patent-ind-claim-en huggingface dataset:
A curable resin system, comprising 1) an epoxy component having two or more epoxy resins, wherein at least one of the epoxy resins is a 1,4-cyclohexanedimethanol diglycidyl ether having an epoxy equivalent weight of up to 140 and at least one other epoxy resin is an epoxy novolac resin; and 2) a hardener component comprising polyethylene tetraamine. 1) an epoxy component having two or more epoxy resins, wherein at least one of the epoxy resins is a 1,4-cyclohexanedimethanol diglycidyl ether having an epoxy equivalent weight of up to 140 and at least one other epoxy resin is an epoxy novolac resin; and 2) a hardener component comprising polyethylene tetraamine.
An ID document comprising a document core layer having two opposed surfaces or a smart card comprising an inlay having two opposed surfaces, the inlay comprising at least one of an electronic processing circuitry and an electronic memory circuitry embedded therein, the ID document and the smart card further comprising: a multi-layer laminate on at least one surface of the document core layer or on at least one surface of the inlay, the multilayer laminate comprising: a top layer ; a middle layer ; and a bottom layer , characterized in that the melting point of the bottom layer is higher than the melting point of the middle layer but is lower than the thermal softening/deformation point of the top layer. a multi-layer laminate on at least one surface of the document core layer or on at least one surface of the inlay, the multilayer laminate comprising: a top layer ; a middle layer ; and a bottom layer , a top layer ; a middle layer ; and a bottom layer , characterized in that the melting point of the bottom layer is higher than the melting point of the middle layer but is lower than the thermal softening/deformation point of the top layer.
Test unit for measuring internal pressure in a cylindrical glass container , comprising: - a support adapted for housing a cylindrical glass container during a test phase, so as to define a longitudinal axis (x), which, in use, corresponds to a longitudinal axis of a cylindrical glass container arranged in said support ; - a piston adapted for selectively exerting a predetermined axial force in a longitudinal direction substantially parallel to said longitudinal axis (x), the piston being adapted for actuating a plunger movable along said longitudinal axis inside a container arranged in said support ; - at least one measuring sensor , adapted for measuring a change in diameter in a transverse direction (y) which is transversal to said longitudinal axis (x); - a programmable control unit operatively connected to said at least one measuring sensor and configured to correlate a diameter change measured by said at least one measuring sensor in the presence of a predetermined axial force with reference internal pressure values to which said measured diameter change and said predetermined axial force correspond. - a support adapted for housing a cylindrical glass container during a test phase, so as to define a longitudinal axis (x), which, in use, corresponds to a longitudinal axis of a cylindrical glass container arranged in said support ; - a piston adapted for selectively exerting a predetermined axial force in a longitudinal direction substantially parallel to said longitudinal axis (x), the piston being adapted for actuating a plunger movable along said longitudinal axis inside a container arranged in said support ; - at least one measuring sensor , adapted for measuring a change in diameter in a transverse direction (y) which is transversal to said longitudinal axis (x); - a programmable control unit operatively connected to said at least one measuring sensor and configured to correlate a diameter change measured by said at least one measuring sensor in the presence of a predetermined axial force with reference internal pressure values to which said measured diameter change and said predetermined axial force correspond.
An ink refill container configured to refill ink into an ink tank (41-45) that has an ink inlet flow path portion and an ink chamber arranged to communicate with the ink inlet flow path portion , the ink refill container comprising: a container main body provided to include an ink chamber configured to contain therein ink, which is to be refilled to the ink tank (41-45); an ink outlet forming portion provided at an edge of the container main body to include an ink outlet configured to allow the ink to flow out from the ink chamber ; a valve provided in the ink outlet forming portion and configured to seal the ink outlet in an openable and closable manner; and a positioning structure configured to abut on part of the ink tank (41-45) and position the valve relative to the ink tank (41-45) when the valve is opened, wherein the ink outlet is formed in a tubular portion that is part of the ink outlet forming portion , the positioning structure includes a positioning surface that is provided to be opposed to an outer face of the tubular portion across a clearance and that is extended in a direction intersecting with a center axis of the ink outlet , and the positioning surface is configured to abut on the part of the ink tank (41-45), when the ink inlet flow path portion of the ink tank (41-45) is inserted into the ink outlet to open the valve , characterized in that projections are provided having the positioning surfaces , which are in an approximate T shape and are leading end faces of the projections . a container main body provided to include an ink chamber configured to contain therein ink, which is to be refilled to the ink tank (41-45); an ink outlet forming portion provided at an edge of the container main body to include an ink outlet configured to allow the ink to flow out from the ink chamber ; a valve provided in the ink outlet forming portion and configured to seal the ink outlet in an openable and closable manner; and a positioning structure configured to abut on part of the ink tank (41-45) and position the valve relative to the ink tank (41-45) when the valve is opened, wherein the ink outlet is formed in a tubular portion that is part of the ink outlet forming portion , the positioning structure includes a positioning surface that is provided to be opposed to an outer face of the tubular portion across a clearance and that is extended in a direction intersecting with a center axis of the ink outlet , and the positioning surface is configured to abut on the part of the ink tank (41-45), when the ink inlet flow path portion of the ink tank (41-45) is inserted into the ink outlet to open the valve , characterized in that projections are provided having the positioning surfaces , which are in an approximate T shape and are leading end faces of the projections .
A slice information usage method, wherein the method is performed by a terminal, and the method comprises: when first frequency point priority information and second frequency point priority information are different, using the second frequency point priority information, or ignoring the first frequency point priority information, or updating the first frequency point priority information according to the second frequency point priority information, wherein the first frequency point priority information and second frequency point priority information correspond to the same network slice; wherein the first frequency point priority information is frequency point priority information saved by the terminal for the network slice, and the second frequency point priority information is frequency point priority information indicated or configured by a network side for the network slice; wherein the method further comprises: receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice. when first frequency point priority information and second frequency point priority information are different, using the second frequency point priority information, or ignoring the first frequency point priority information, or updating the first frequency point priority information according to the second frequency point priority information, wherein the first frequency point priority information and second frequency point priority information correspond to the same network slice; wherein the first frequency point priority information is frequency point priority information saved by the terminal for the network slice, and the second frequency point priority information is frequency point priority information indicated or configured by a network side for the network slice; wherein the method further comprises: receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice. receiving, by the terminal, slice information indicated or configured by a network device, wherein the slice information comprises the second frequency point priority information and further comprises at least one of: a slice identity corresponding to the network slice; and frequency point information corresponding to the network slice.
A method for real-time detection of low start-up for a working electrode of a sensor having a catalyzing agent and electrodes, the method comprising: performing an electrochemical impedance spectroscopy (EIS) procedure to generate a set of impedance-related data for said working electrode; and characterised in that based on only that set of impedance-related data, determining whether said working electrode is experiencing low start-up; whereby the detection of low start-up is based on a bound check and a reliability index which is high when the 1kHz real impedance and the Nyquist slope are lower than their corresponding upper bounds and which is low when 1kHz real impedance and the Nyquist slope are higher than their corresponding upper bounds; whereby the Nyquist slope is a linear fit to the impedance-related data if the real part of impedance is plotted against its imaginary part. performing an electrochemical impedance spectroscopy (EIS) procedure to generate a set of impedance-related data for said working electrode; and characterised in that based on only that set of impedance-related data, determining whether said working electrode is experiencing low start-up; whereby the detection of low start-up is based on a bound check and a reliability index which is high when the 1kHz real impedance and the Nyquist slope are lower than their corresponding upper bounds and which is low when 1kHz real impedance and the Nyquist slope are higher than their corresponding upper bounds; whereby the Nyquist slope is a linear fit to the impedance-related data if the real part of impedance is plotted against its imaginary part.
A system for transmitting context data about a current context in which a first user is currently located from the first user to at least one second user , the context data being generated by digital units which are used by the first user in his immediate real and/or virtual environment, and wherein the system is configured to automatically collect the thus generated context data in accordance with rules, combine them in the current context and transmit them via a context-based communication channel to the at least one second user , wherein, during a start and initialization phase of the system, the user side defines and sets rules, how context data, which are generated by using the digital units in the immediate environment of the first user, are to be transmitted to the at least one second user, wherein the rules can be changed at any time by the first user and can be stored anew in the system, and wherein the digital units used by the first user in his real and/or virtual environment comprise technical devices, digital applications and virtual sensors, and wherein the system comprises at least one first client installed on a terminal assigned to the first user, a first system aggregator assigned to the first user , and a signaling server in communicative communication with the first system aggregator, wherein the first client is configured to acquire, analyze, evaluate, if necessary filter and forward to the first system aggregator the context data of the digital units by means of interaction with at least one sensor and/or at least one actuator which are in communicative connection with the terminal, and the first system aggregator is configured to select the context data received from the first client in accordance with a predetermined stored prioritization of the context data, depending on a relationship status between the first user and the at least one second user , and to convert them into a format supported by the signaling server , and the signaling server is configured to forward the correspondingly converted context data to the at least one second user .
A scramjet , comprising: a converging inlet configured to compress an incoming air stream ; a combustor comprising a combustion chamber downstream of the converging inlet, wherein the combustor is configured to introduce a fuel stream into the air stream in the combustion chamber to create a fuel air mixture stream , and to ignite and combust the fuel air mixture stream to create an exhaust stream , wherein the combustor comprises a fuel injection system comprising at least one arcjet configured to inject the fuel stream into the air stream in the combustion chamber at a fuel speed that is sufficient to create shear between the fuel stream and the air stream; and a diverging exit nozzle downstream of the combustion chamber and configured to accelerate the exhaust stream to produce thrust of the scramjet. a converging inlet configured to compress an incoming air stream ; a combustor comprising a combustion chamber downstream of the converging inlet, wherein the combustor is configured to introduce a fuel stream into the air stream in the combustion chamber to create a fuel air mixture stream , and to ignite and combust the fuel air mixture stream to create an exhaust stream , wherein the combustor comprises a fuel injection system comprising at least one arcjet configured to inject the fuel stream into the air stream in the combustion chamber at a fuel speed that is sufficient to create shear between the fuel stream and the air stream; and a diverging exit nozzle downstream of the combustion chamber and configured to accelerate the exhaust stream to produce thrust of the scramjet.
A shoe outer sole for relieving pressure from a wearer's metatarsal heads , comprising: a shaft region disposed in the outer sole so as to underlie metatarsal shafts of the wearer, the shaft region comprising a first lower surface; a ball region disposed in the outer sole so as to underlie the metatarsal heads of the wearer, the ball region being anterior to the shaft region and comprising a second lower surface; a toe region disposed in the outer sole so as to underlie the phalanges of the wearer, the toe region being anterior to the ball region and comprising a third lower surface, wherein the second lower surface is raised relative to the first lower surface and the third lower surface; a cavity positioned under the second lower surface and between the shaft region and toe region , wherein a length (F) of the cavity varies in a transverse direction such that the length (F) of the cavity is larger on a medial side of the outer sole and smaller on a lateral side of the outer sole ; and an upper surface comprising a first portion disposed above the shaft region , a second portion disposed above the ball region , and a third portion disposed above the toe region , wherein the first portion is raised relative to the second portion and the third portion, and wherein the first portion has a transversely varying height that varies between medial and lateral points. a shaft region disposed in the outer sole so as to underlie metatarsal shafts of the wearer, the shaft region comprising a first lower surface; a ball region disposed in the outer sole so as to underlie the metatarsal heads of the wearer, the ball region being anterior to the shaft region and comprising a second lower surface; a toe region disposed in the outer sole so as to underlie the phalanges of the wearer, the toe region being anterior to the ball region and comprising a third lower surface, wherein the second lower surface is raised relative to the first lower surface and the third lower surface; a cavity positioned under the second lower surface and between the shaft region and toe region , wherein a length (F) of the cavity varies in a transverse direction such that the length (F) of the cavity is larger on a medial side of the outer sole and smaller on a lateral side of the outer sole ; and an upper surface comprising a first portion disposed above the shaft region , a second portion disposed above the ball region , and a third portion disposed above the toe region , wherein the first portion is raised relative to the second portion and the third portion, and wherein the first portion has a transversely varying height that varies between medial and lateral points.
Glove, comprising: - at least a first finger section and a second finger section , each finger section comprising a protective layer configured to be at least partially arranged over a finger part of a user; and - a pivot connecting said first finger section and said second finger section ; - wherein said pivot has a pivot axis that substantially coincides with a finger joint of a user's hand; and - wherein one of the first and second finger section comprises a rounded protrusion and wherein the other of the first and second finger section comprises a corresponding rounded recess configured to receive said rounded protrusion , said protrusion and recess together forming said pivot connecting said first finger section and said second finger section ; wherein - the glove is a protective glove; characterized in that - the protrusion and recess provide the pivot with a non-overlapping relationship between the first and the second finger section at the pivot ; and - wherein the first and second finger section and said pivot define a substantially continuous and flush wall. - at least a first finger section and a second finger section , each finger section comprising a protective layer configured to be at least partially arranged over a finger part of a user; and - a pivot connecting said first finger section and said second finger section ; - wherein said pivot has a pivot axis that substantially coincides with a finger joint of a user's hand; and - wherein one of the first and second finger section comprises a rounded protrusion and wherein the other of the first and second finger section comprises a corresponding rounded recess configured to receive said rounded protrusion , said protrusion and recess together forming said pivot connecting said first finger section and said second finger section ; - the glove is a protective glove; characterized in that - the protrusion and recess provide the pivot with a non-overlapping relationship between the first and the second finger section at the pivot ; and - wherein the first and second finger section and said pivot define a substantially continuous and flush wall.
A negative current collector , comprising: a support layer ; and a conductive layer disposed on at least one of two opposite surfaces of the support layer in a thickness direction of the support layer , wherein the support layer has a smaller density than the conductive layer , the conductive layer has a thickness D 1 satisfying 300nm≤D 1 ≤2μm, when the negative current collector has a tensile strain of 1.5%, the conductive layer has a sheet resistance growth rate T satisfying T≤2.5%, as measured according to the description, the conductive layer comprises copper, or copper alloy, the support layer comprises polyethylene terephthalate, and the support layer has a thickness D 2 satisfying 2μm≤D 2 ≤10μm; wherein the negative current collector further comprises a protective layer , wherein the protective layer is disposed between the conductive layer and the support layer . a support layer ; and a conductive layer disposed on at least one of two opposite surfaces of the support layer in a thickness direction of the support layer , wherein the support layer has a smaller density than the conductive layer , the conductive layer has a thickness D 1 satisfying 300nm≤D 1 ≤2μm, when the negative current collector has a tensile strain of 1.5%, the conductive layer has a sheet resistance growth rate T satisfying T≤2.5%, as measured according to the description, the conductive layer comprises copper, or copper alloy, the support layer comprises polyethylene terephthalate, and the support layer has a thickness D 2 satisfying 2μm≤D 2 ≤10μm; wherein the negative current collector further comprises a protective layer , wherein the protective layer is disposed between the conductive layer and the support layer .
A low emissivity transparent composite film comprising: a transparent film substrate ; an underlayer of abrasion resistant hardcoat material compatible with the transparent film substrate ; and at least one infrared reflective layer ; the composite film having an emissivity of less than 0.30 measured according to ASTM C1371-04A and wherein the underlayer is disposed between the transparent film substrate and the infrared reflective layer ; wherein the infrared reflecting layer comprises a metallic layer selected from the group consisting of aluminum, copper, gold, nickel, silver, platinum, palladium, tungsten, titanium, or alloys thereof; wherein the composite film further comprises a transparent protective top coat having a dried thickness of less than 0.5 microns, wherein the protective top coat is disposed over the infrared reflective layer ; and wherein the protective top coat comprises silicon. a transparent film substrate ; an underlayer of abrasion resistant hardcoat material compatible with the transparent film substrate ; and at least one infrared reflective layer ; the composite film having an emissivity of less than 0.30 measured according to ASTM C1371-04A and wherein the underlayer is disposed between the transparent film substrate and the infrared reflective layer ; wherein the infrared reflecting layer comprises a metallic layer selected from the group consisting of aluminum, copper, gold, nickel, silver, platinum, palladium, tungsten, titanium, or alloys thereof; wherein the composite film further comprises a transparent protective top coat having a dried thickness of less than 0.5 microns, wherein the protective top coat is disposed over the infrared reflective layer ; and wherein the protective top coat comprises silicon.