mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid heating system, which includes o a geothermal circuit as a primary heat source o a heat pump , including a heat collector circuit and a heat emitter circuit which emits heat at a high temperature o an intake air device which is connectable in heating/cooling operation to a selected side of the heat pump to operate in a selectable manner for the heating or the cooling of the intake air, o an exhaust air device with heat recovery, and an exhaust air device and the geothermal circuit are connected to the collector circuit of the heat pump , and the intake air device is connected in a selectable manner to the heat emitter circuit or to the heat collector circuit of the heat pump characterized in that o the intake air device is connected directly to the collector circuit and indirectly to the heat emitter circuit via a heat exchanger , o the intake air device and/or the exhaust air device as opposite heat exchangers, is a multi-layer cross-flow heat exchanger with a high coefficient of performance, in such extent an exhaust flow of fluid of the heat exchanger can be utilized in a opposite heat exchanger or in the geothermal circuit during at least a part of the year, so that o the exhaust flow of the intake air device can be heated directly by the geothermal circuit or by the exhaust air device , or o the exhaust flow of the exhaust air device can be heated directly by a supply flow of the geothermal circuit or the intake air device , and o the heat pump is layered and comprises two or more units that are adapted to operate in series together or in small groups. o a geothermal circuit as a primary heat source o a heat pump , including a heat collector circuit and a heat emitter circuit which emits heat at a high temperature o an intake air device which is connectable in heating/cooling operation to a selected side of the heat pump to operate in a selectable manner for the heating or the cooling of the intake air, o an exhaust air device with heat recovery, and o the intake air device is connected directly to the collector circuit and indirectly to the heat emitter circuit via a heat exchanger , o the intake air device and/or the exhaust air device as opposite heat exchangers, is a multi-layer cross-flow heat exchanger with a high coefficient of performance, in such extent an exhaust flow of fluid of the heat exchanger can be utilized in a opposite heat exchanger or in the geothermal circuit during at least a part of the year, so that o the exhaust flow of the intake air device can be heated directly by the geothermal circuit or by the exhaust air device , or o the exhaust flow of the exhaust air device can be heated directly by a supply flow of the geothermal circuit or the intake air device , and o the exhaust flow of the intake air device can be heated directly by the geothermal circuit or by the exhaust air device , or o the exhaust flow of the exhaust air device can be heated directly by a supply flow of the geothermal circuit or the intake air device , and o the heat pump is layered and comprises two or more units that are adapted to operate in series together or in small groups.
A method of operating a consumer electronics device, wherein a plurality of cables are connected to corresponding audio/video input/output ports of the consumer electronics device, the method comprising: receiving (S1) an analogue video signal transmitted along a connected cable; detecting and measuring (S2) an AC component in a part of the received analogue video signal corresponding to a video blanking period during a horizontal scan line; comparing (S3) the measured AC component with a predetermined threshold level; if a level of the measured AC component is higher than the predetermined threshold level, in response, extracting (S4) the measured AC component, and then comparing (S4) the measured AC component with analogue video signals transmitted along the remaining connected cables by measuring similarity between the measured AC component and the analogue video signals transmitted along the remaining connected cables; and if there is similarity between the measured AC component and at least one of the analogue video signals transmitted along the remaining connected cables, in response, providing (S5) an alert message to a user of the consumer electronics device for allowing the user to mitigate inter-cable crosstalk. receiving (S1) an analogue video signal transmitted along a connected cable; detecting and measuring (S2) an AC component in a part of the received analogue video signal corresponding to a video blanking period during a horizontal scan line; comparing (S3) the measured AC component with a predetermined threshold level; if a level of the measured AC component is higher than the predetermined threshold level, in response, extracting (S4) the measured AC component, and then comparing (S4) the measured AC component with analogue video signals transmitted along the remaining connected cables by measuring similarity between the measured AC component and the analogue video signals transmitted along the remaining connected cables; and if there is similarity between the measured AC component and at least one of the analogue video signals transmitted along the remaining connected cables, in response, providing (S5) an alert message to a user of the consumer electronics device for allowing the user to mitigate inter-cable crosstalk.
A valve assembly, comprising: a valve housing having a valve hole therein, an external port extending from said valve hole ; said valve housing being made by additive manufacturing with said valve hole formed by said additive manufacturing; a valve spool slidably installed directly into the valve hole of the valve housing with no sleeves or seals interposed therebetween; wherein said valve housing is modular and constructed to mount together with another valve housing ; characterized in that said valve housing has a protruding integrally formed valve fitting also made by additive manufacturing and surrounding said external port . a valve housing having a valve hole therein, an external port extending from said valve hole ; said valve housing being made by additive manufacturing with said valve hole formed by said additive manufacturing; a valve spool slidably installed directly into the valve hole of the valve housing with no sleeves or seals interposed therebetween; wherein said valve housing is modular and constructed to mount together with another valve housing ; characterized in that said valve housing has a protruding integrally formed valve fitting also made by additive manufacturing and surrounding said external port .
A microflow assembly comprising: a microflow assembly housing comprising an interior surface ; a mandrel having an exterior surface , the mandrel positioned within the microflow assembly housing so that at least a portion of the exterior surface of the mandrel is substantially parallel to at least a portion of the interior surface of the microflow assembly housing; and at least one protrusion extending from either the interior surface of the microflow assembly housing or the exterior surface of the mandrel, the at least one protrusion abutting either the exterior surface of the mandrel or the interior surface of the microflow assembly housing to form an impermeably sealed fluid channel configured to reduce sagging within the microflow assembly, the impermeably sealed fluid channel having a channel inlet and a channel outlet, characterized in that the microflow assembly housing and the mandrel are assembled together when the at least one protrusion is in a partially-hardened state to fill in undesirable microgaps. a microflow assembly housing comprising an interior surface ; a mandrel having an exterior surface , the mandrel positioned within the microflow assembly housing so that at least a portion of the exterior surface of the mandrel is substantially parallel to at least a portion of the interior surface of the microflow assembly housing; and at least one protrusion extending from either the interior surface of the microflow assembly housing or the exterior surface of the mandrel, the at least one protrusion abutting either the exterior surface of the mandrel or the interior surface of the microflow assembly housing to form an impermeably sealed fluid channel configured to reduce sagging within the microflow assembly, the impermeably sealed fluid channel having a channel inlet and a channel outlet, characterized in that the microflow assembly housing and the mandrel are assembled together when the at least one protrusion is in a partially-hardened state to fill in undesirable microgaps.
A composite tissue comprising a three-dimensional synthetic tissue and an artificial bone for use in a method of treating or preventing a disease, disorder, or condition associated with an osteochondral defect, wherein the artificial bone is smaller in size than a depth of a defect of a bone section in the osteochondral defect by 2-4 mm, the three-dimensional synthetic tissue is substantially made of a cell and an extracellular matrix derived from the cell, the extracellular matrix contains fibronectin, collagen I, collagen III, and vitronectin, the extracellular matrix is diffusedly distributed in the tissue, the extracellular matrix and the cell biologically integrate to form a three-dimensional structure together, and the composite tissue has an ability to biologically integrate with surroundings when implanted and has sufficient strength to provide a self-supporting ability.
Device for determining a pulmonary function of a subject comprising a forced oscillatory technique device configured to excite alveoli of a subject's lung with an oscillatory pressure to generate respiratory mechanics data of the subject; a dark field x-ray imaging device using a grating interferometer configured to acquire image data comprising dark field image data of the alveoli in at least a sub-section of the subject's lung in response to the oscillatory pressure; a computing device for generating pulmonary function data based on the respiratory mechanics data and the image data.
An electric storage device comprising: a positive electrode including a positive electrode substrate and a positive electrode mixture layer, the positive electrode mixture layer being formed on the positive electrode substrate and containing a positive electrode active material; a negative electrode including a negative electrode substrate and a negative electrode mixture layer, the negative electrode mixture layer being formed on the negative electrode substrate and containing a negative electrode active material; and a separator disposed between the positive electrode and the negative electrode, wherein the separator yields a triple value of standard deviation of local air resistance which is determined in accordance with the description, as measured within a 5-mm diameter circle, of at least 20 seconds/10 cc but not more than 350 seconds/10 cc. a positive electrode including a positive electrode substrate and a positive electrode mixture layer, the positive electrode mixture layer being formed on the positive electrode substrate and containing a positive electrode active material; a negative electrode including a negative electrode substrate and a negative electrode mixture layer, the negative electrode mixture layer being formed on the negative electrode substrate and containing a negative electrode active material; and a separator disposed between the positive electrode and the negative electrode, wherein the separator yields a triple value of standard deviation of local air resistance which is determined in accordance with the description, as measured within a 5-mm diameter circle, of at least 20 seconds/10 cc but not more than 350 seconds/10 cc.
A method by an electronic device , the method comprising: determining a management target device ; selecting at least one sensing device for measuring an environment in which the management target device operates, in order to identify a state of the management target device; transmitting an operation command to the management target device ; receiving measurement information directly from the at least one sensing device , the measurement information being generated by measuring the environment when the management target device is operating based on the received operation command; and identifying the state of the management target device based on the measurement information. determining a management target device ; selecting at least one sensing device for measuring an environment in which the management target device operates, in order to identify a state of the management target device; transmitting an operation command to the management target device ; receiving measurement information directly from the at least one sensing device , the measurement information being generated by measuring the environment when the management target device is operating based on the received operation command; and identifying the state of the management target device based on the measurement information.
Low-frequency radar antenna , comprising an array of elementary antennas, capable of operating at a predefined operating frequency, characterised in that it comprises an antenna plane , the antenna plane comprising a radiating plane and a ground plane , the radiating plane carrying the array of elementary antennas , the antenna plane being able to be deployed from a folded state to a deployed state, in which it adopts a configuration substantially perpendicular to the terrestrial surface of the ground or sea, in that it comprises a device for storing the antenna plane, comprising a winding system for the radiating plane and a winding system for the ground plane , the antenna plane being flexible so that it can be wound in the folded state, and in that it comprises a lifting device of the aerostat type capable of lifting the antennae plane so as to hold it in the deployed state, the antennae plane being light so that it can be lifted by the lifting device. in that it comprises a device for storing the antenna plane, comprising a winding system for the radiating plane and a winding system for the ground plane , the antenna plane being flexible so that it can be wound in the folded state, and in that it comprises a lifting device of the aerostat type capable of lifting the antennae plane so as to hold it in the deployed state, the antennae plane being light so that it can be lifted by the lifting device.
Hand-guided drum-type pipe-cleaning device , comprising a drum , which is rotatable about an axis of rotation , and a spring shaft , which is assigned to the drum , wherein a length section of the spring shaft extends from the drum , and the length section is rotatable about its longitudinal axis by way of rotation of the drum , a handle , which is configured for rotatable support of the drum , a drive shaft , which serves for driving the drum , and an attachment point , assigned to the drive shaft , for connecting the drive shaft to a drive machine in terms of drive, characterized in that the pipe-cleaning device comprises a freewheel coupling via which the drive shaft is or can be connected operatively to the drum in such a way that, with a driving drive shaft , coupling is performed by the freewheel coupling and, with a driving drum , the freewheel coupling runs freely. a drum , which is rotatable about an axis of rotation , and a spring shaft , which is assigned to the drum , wherein a length section of the spring shaft extends from the drum , and the length section is rotatable about its longitudinal axis by way of rotation of the drum , a handle , which is configured for rotatable support of the drum , a drive shaft , which serves for driving the drum , and an attachment point , assigned to the drive shaft , for connecting the drive shaft to a drive machine in terms of drive, characterized in that the pipe-cleaning device comprises a freewheel coupling via which the drive shaft is or can be connected operatively to the drum in such a way that, with a driving drive shaft , coupling is performed by the freewheel coupling and, with a driving drum , the freewheel coupling runs freely.
A method for reporting channel state information, CSI, by a user equipment, UE, the method comprising: receiving configuration information from a base station, BS, the configuration information configuring a first interference measurement resource for a first CSI subframe set comprising flexible subframes and a second interference measurement resource for a second CSI subframe set comprising subframes dedicated for downlink transmission, wherein a flexible subframe is a subframe whose duplexing direction is flexible; identifying the first interference measurement resource within the first CSI subframe set and the second interference measurement resource within the second CSI subframe set; obtaining CSI associated with one of the first CSI subframe set and the second CSI subframe set based on one of the identified first interference measurement resource and the identified second interference measurement resource; and reporting the obtained CSI. receiving configuration information from a base station, BS, the configuration information configuring a first interference measurement resource for a first CSI subframe set comprising flexible subframes and a second interference measurement resource for a second CSI subframe set comprising subframes dedicated for downlink transmission, wherein a flexible subframe is a subframe whose duplexing direction is flexible; identifying the first interference measurement resource within the first CSI subframe set and the second interference measurement resource within the second CSI subframe set; obtaining CSI associated with one of the first CSI subframe set and the second CSI subframe set based on one of the identified first interference measurement resource and the identified second interference measurement resource; and reporting the obtained CSI.
A dressing assembly configured to treat a tissue site , comprising: a manifold configured to distribute reduced pressure to the tissue site (102, the manifold comprising a first side , a second side opposite the first side , and a thickness between the first side and the second side , the second side configured to face the tissue site ; a first contraction zone extending from the first side into the thickness of the manifold and toward the second side , the first contraction zone configured to contract a first amount; and a second contraction zone extending from the first contraction zone into the thickness of the manifold and toward the second side , the second contraction zone configured to contract a second amount that is greater than the first amount when the reduced pressure is applied to the manifold , wherein the first contraction zone has a greater stiffness than the second contraction zone , and the second side of the manifold is configured to form a concave shape configured to face the tissue site when the first contraction zone contracts the first amount and the second contraction zone contracts the second amount. a manifold configured to distribute reduced pressure to the tissue site (102, the manifold comprising a first side , a second side opposite the first side , and a thickness between the first side and the second side , the second side configured to face the tissue site ; a first contraction zone extending from the first side into the thickness of the manifold and toward the second side , the first contraction zone configured to contract a first amount; and a second contraction zone extending from the first contraction zone into the thickness of the manifold and toward the second side , the second contraction zone configured to contract a second amount that is greater than the first amount when the reduced pressure is applied to the manifold , wherein the first contraction zone has a greater stiffness than the second contraction zone , and the second side of the manifold is configured to form a concave shape configured to face the tissue site when the first contraction zone contracts the first amount and the second contraction zone contracts the second amount.
Valve-actuating device , comprising a manual operating element and a valve which can be actuated by means of the manual operating element , wherein a control element is operatively connected to the manual operating element , wherein the valve can be actuated by a distal end of the control element , and a compensating device is arranged in operative connection between the control element and the manual operating element , which compensating device has a plunger , which is movably guided in a receptacle , and allows a relative movement of the manual operating element with respect to the control element , and wherein a restoring element is present which counters the relative movement with a restoring force, wherein the valve has a pressure chamber which is connected via a filling opening to an inlet of the valve and via an outlet opening to an outlet of the valve , wherein a valve element of the valve that separates the outlet from the inlet can be subjected to load by the pressure chamber , wherein the outlet opening can be opened and closed by a closure element , and wherein a cross-sectional area which can be covered by means of the closure element at the outlet opening is larger than a cross-sectional area of the control element at its outlet from the pressure chamber , characterized in that the pressure chamber of the valve is sealed with respect to the manual operating element by means of a seal which bears against the control element .
A battery, comprising a housing and a battery cell accommodated in the housing, characterized in that : the battery cell comprises electrodes and tabs , wherein each of the electrodes comprises a current collector and an active material layer, the current collector comprises a coating zone coated with the active material layer and an empty foil zone not coated with the active material layer, an end of a tab overlaps the empty foil zone and the tab and the empty foil zone are fixedly connected by laser welding; a surface of the empty foil zone facing away from the tab has a plurality of dot-shaped welding marks arranged at intervals, and each of the dot-shaped welding marks comprises a concave part and an annular convex part surrounding a periphery of the concave part ; and a surface of the tab facing away from the empty foil zone has no welding mark; wherein a height of the annular convex part is within 30μm; and a depth of the concave part is smaller than a sum of thicknesses of the empty foil zone and the tab ; wherein the plurality of dot-shaped welding marks are arranged in an array; and/or, a number of the dot-shaped welding marks is between 150 and 800. the battery cell comprises electrodes and tabs , wherein each of the electrodes comprises a current collector and an active material layer, the current collector comprises a coating zone coated with the active material layer and an empty foil zone not coated with the active material layer, an end of a tab overlaps the empty foil zone and the tab and the empty foil zone are fixedly connected by laser welding; a surface of the empty foil zone facing away from the tab has a plurality of dot-shaped welding marks arranged at intervals, and each of the dot-shaped welding marks comprises a concave part and an annular convex part surrounding a periphery of the concave part ; and a surface of the tab facing away from the empty foil zone has no welding mark; wherein a height of the annular convex part is within 30μm; and a depth of the concave part is smaller than a sum of thicknesses of the empty foil zone and the tab ; wherein the plurality of dot-shaped welding marks are arranged in an array; and/or, a number of the dot-shaped welding marks is between 150 and 800.