mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for determining a parameter representative of airway resistance, the apparatus comprising - a spirometer for obtaining forced expiration flow-volume data, - a processor configured to receive forced expiration flow-volume data from the spirometer, wherein the processor is configured to perform the steps of: (i) fitting a second order differential equation expressing the change of volume as function of time and the second differential of the volume as function of time to said flow-volume data and (ii) determining a parameter representative of airway resistance in dependence upon a coefficient of a first order term in the obtained differential equation, said determining the parameter being based only on the spirometer data, wherein the processor is further configured to output the parameter representative of the airway resistance. - a spirometer for obtaining forced expiration flow-volume data, - a processor configured to receive forced expiration flow-volume data from the spirometer, wherein the processor is configured to perform the steps of: (i) fitting a second order differential equation expressing the change of volume as function of time and the second differential of the volume as function of time to said flow-volume data and (ii) determining a parameter representative of airway resistance in dependence upon a coefficient of a first order term in the obtained differential equation, said determining the parameter being based only on the spirometer data, wherein the processor is further configured to output the parameter representative of the airway resistance. (i) fitting a second order differential equation expressing the change of volume as function of time and the second differential of the volume as function of time to said flow-volume data and (ii) determining a parameter representative of airway resistance in dependence upon a coefficient of a first order term in the obtained differential equation, said determining the parameter being based only on the spirometer data,
Micro heating plate device having: a membrane support device ; a membrane , which at least partly spans a cavity formed in the membrane support device ; and at least one heating line arranged on and/or in the membrane ; at least one reflector element , which is suspended on an inner side of the membrane and/or formed on a rear side of the cavity that faces away from the membrane , in such a way that, by means of the at least one reflector element , thermal radiation emitted from the at least one heating line and/or the membrane can be at least partly reflected back onto and/or into the membrane ; characterized in that the membrane and/or the at least one reflector element has at least one pattern of plasmonic structures . a membrane support device ; a membrane , which at least partly spans a cavity formed in the membrane support device ; and at least one heating line arranged on and/or in the membrane ; at least one reflector element , which is suspended on an inner side of the membrane and/or formed on a rear side of the cavity that faces away from the membrane , in such a way that, by means of the at least one reflector element , thermal radiation emitted from the at least one heating line and/or the membrane can be at least partly reflected back onto and/or into the membrane ; characterized in that the membrane and/or the at least one reflector element has at least one pattern of plasmonic structures .
A composition comprising an isolated HGF/IgG complex or a pharmaceutical composition comprising an isolated HGF/IgG complex and a pharmaceutically acceptable excipient, wherein the HGF/IgG complex comprises recombinant human HGF and human non-specific IgG.
A centrifugal heat dissipation fan , adapted to be disposed in an electronic device, the heat dissipation fan comprising a hub and a plurality of fan blades , surrounding and disposed at the hub , characterized in that the fan blades have ductility and flexibility, and any two of the fan blades next to each other have different thicknesses, wherein the fan blades are equidistantly disposed at the hub .
A computing device for coprocessor task offloading, the computing device comprising: an application processor ; a coprocessor ; one or more sensors ; a sensor management module configured to receive, by the coprocessor, sensor data associated with the one or more sensors; a sensor profiling module configured to: detect, by the coprocessor, a plurality of events associated with the sensor data; and determine, by the coprocessor, a resource usage cost value and a power state transition cost value associated with the events; a task schedule module to receive, by the coprocessor, an offloaded task request from the application processor; and a machine learning module configured to: determine, by the coprocessor, an aggregate coprocessor load value associated with the plurality of events as a function of a frequency of the events, the resource usage cost value associated with the events, and the power state transition cost value associated with the events; and determine, by the coprocessor, whether to accept the offloaded task request based on the aggregate coprocessor load value and a coprocessor load value associated with the offloaded task request. an application processor ; a coprocessor ; one or more sensors ; a sensor management module configured to receive, by the coprocessor, sensor data associated with the one or more sensors; a sensor profiling module configured to: detect, by the coprocessor, a plurality of events associated with the sensor data; and determine, by the coprocessor, a resource usage cost value and a power state transition cost value associated with the events; detect, by the coprocessor, a plurality of events associated with the sensor data; and determine, by the coprocessor, a resource usage cost value and a power state transition cost value associated with the events; a task schedule module to receive, by the coprocessor, an offloaded task request from the application processor; and a machine learning module configured to: determine, by the coprocessor, an aggregate coprocessor load value associated with the plurality of events as a function of a frequency of the events, the resource usage cost value associated with the events, and the power state transition cost value associated with the events; and determine, by the coprocessor, whether to accept the offloaded task request based on the aggregate coprocessor load value and a coprocessor load value associated with the offloaded task request. determine, by the coprocessor, an aggregate coprocessor load value associated with the plurality of events as a function of a frequency of the events, the resource usage cost value associated with the events, and the power state transition cost value associated with the events; and determine, by the coprocessor, whether to accept the offloaded task request based on the aggregate coprocessor load value and a coprocessor load value associated with the offloaded task request.
A composition for use in the control of bleeding with or without compression, wherein the composition comprises: nanostructured fibrin and agarose hydrogels, preferably type VII agarose hydrogels, (NFAH); or non-nanostructured or pre-nanostructured fibrin and agarose hydrogels, preferably type VII agarose hydrogels, (FAH). nanostructured fibrin and agarose hydrogels, preferably type VII agarose hydrogels, (NFAH); or non-nanostructured or pre-nanostructured fibrin and agarose hydrogels, preferably type VII agarose hydrogels, (FAH).
A downlight apparatus, comprising: a main housing having a surrounding wall and a base part , a top end of the surrounding wall fixed to the base part forming a cup containing space; a light module at least partly attached to the base part and configured for emitting a first light and a second light; a diffusion cover fixed to a bottom end of the surrounding wall and configured for converting the second light to a peripheral light on an exterior surface of the diffusion cover ; and a light guide having a light entrance side facing to the base part and configured for directing the first light through the light guide to escape at a light escape side of the light guide , wherein the light escape side of the light guide is surrounded by the diffusion cover , characterized in that the light module has a first LED module and a second LED module for emitting the first light and the second light respectively; and the first LED module and the second LED module are configured to emit lights with different optical spectrums, the first LED module and the second LED module are mounted on two different substrates, and the two different substrates are disposed at different heights with respect to the base part . a main housing having a surrounding wall and a base part , a top end of the surrounding wall fixed to the base part forming a cup containing space; a light module at least partly attached to the base part and configured for emitting a first light and a second light; a diffusion cover fixed to a bottom end of the surrounding wall and configured for converting the second light to a peripheral light on an exterior surface of the diffusion cover ; and a light guide having a light entrance side facing to the base part and configured for directing the first light through the light guide to escape at a light escape side of the light guide , wherein the light escape side of the light guide is surrounded by the diffusion cover , characterized in that the light module has a first LED module and a second LED module for emitting the first light and the second light respectively; and the first LED module and the second LED module are configured to emit lights with different optical spectrums, the first LED module and the second LED module are mounted on two different substrates, and the two different substrates are disposed at different heights with respect to the base part .
A plastic corrugated box comprising: a sheet of plastic corrugated material having a first outer layer , a second outer layer and a plurality of flutes extending between the first outer layer and the second outer layer ; the sheet having a plurality of panels defining side walls of the box and a plurality of scored fold lines between adjacent panels of the plurality of panels wherein the sheet includes a first plurality of welded portions proximate a top edge of the plurality of panels and a second plurality of welded portions proximate a bottom edge of the plurality of panels; said plastic corrugated box being characterised in that : each of the plurality of scored fold lines includes a first segment in one of the first plurality of welded portions and a second segment in one of the second plurality of welded portions. a sheet of plastic corrugated material having a first outer layer , a second outer layer and a plurality of flutes extending between the first outer layer and the second outer layer ; the sheet having a plurality of panels defining side walls of the box and a plurality of scored fold lines between adjacent panels of the plurality of panels wherein the sheet includes a first plurality of welded portions proximate a top edge of the plurality of panels and a second plurality of welded portions proximate a bottom edge of the plurality of panels;
A method for switching coordinator in a personal area network, PAN, including a first PAN coordinator, a first priority PAN coordinator and at least one device, the method is performed by the first PAN coordinator and comprises: transmitting a request for switching at least one device present in a network session to the first priority PAN coordinator , wherein the request includes the number of devices that are connected to the first PAN coordinator and are intended to be switched to the first priority PAN coordinator as a requirement for establishing capability; receiving a response corresponding to the request from the first priority PAN coordinator , transmitting an acknowledgement on receiving the response from the first priority PAN coordinator ; determining whether the first priority PAN coordinator is capable of supporting the at least one device ; transmitting identification information of a new coordinator determined based on a priority and the capability of the new coordinator to support the at least one device, to the at least one device associated with the first PAN coordinator ; and releasing an association between the first PAN coordinator and the at least one device and switching , when the first priority PAN coordinator is capable of supporting the at least one device, a network session of the at least one device with the first priority PAN coordinator as the new coordinator to facilitate establishment of the network session with the new coordinator. transmitting a request for switching at least one device present in a network session to the first priority PAN coordinator , wherein the request includes the number of devices that are connected to the first PAN coordinator and are intended to be switched to the first priority PAN coordinator as a requirement for establishing capability; receiving a response corresponding to the request from the first priority PAN coordinator , transmitting an acknowledgement on receiving the response from the first priority PAN coordinator ; determining whether the first priority PAN coordinator is capable of supporting the at least one device ; transmitting identification information of a new coordinator determined based on a priority and the capability of the new coordinator to support the at least one device, to the at least one device associated with the first PAN coordinator ; and releasing an association between the first PAN coordinator and the at least one device and switching , when the first priority PAN coordinator is capable of supporting the at least one device, a network session of the at least one device with the first priority PAN coordinator as the new coordinator to facilitate establishment of the network session with the new coordinator.
A method of manufacturing a catalyst for a hydrodewaxing process, comprising the steps of: (a) preparing an EU-2 zeolite support, the degree of phase transition of which is controlled such that a phase transition index (T) thereof is 50 ≤ T <100; (b) loading a active metal composition on the EU-2 zeolite support for hydrogenation, the metal composition including at least one selected from the group consisting of group VI metals and group VIII metals; and (c) drying and calcinating the EU-2 zeolite support loaded with the metal composition, wherein T = (TGA weight reduction rate of the synthesized EU-2 sample)/(TGA weight reduction rate of pure EU-2 reference sample) X 100 (here, the TGA weight reduction rate of the EU-2 sample is measured under the condition that the sample is heated from 120°C to 550°C at a heating rate of 2 °C/min and then maintained at 550°C for 2 hours), wherein the step (a) comprises the steps of: (i) mixing a template material with an aqueous alkali solution including a silica raw material and an alumina raw material; (ii) reacting the mixture at a temperature of 50 ∼ 250°C to obtain an EU-2 zeolite, the degree of phase transition of which is controlled such that the phase transition index (T) thereof is 50 ≤ T <100; and (iii) washing and drying the EU-2 zeolite, wherein the pure EU-2 reference sample is synthesized for 48 hours under the same conditions as the EU-2 zeolite support. (a) preparing an EU-2 zeolite support, the degree of phase transition of which is controlled such that a phase transition index (T) thereof is 50 ≤ T <100; (b) loading a active metal composition on the EU-2 zeolite support for hydrogenation, the metal composition including at least one selected from the group consisting of group VI metals and group VIII metals; and (c) drying and calcinating the EU-2 zeolite support loaded with the metal composition, wherein T = (TGA weight reduction rate of the synthesized EU-2 sample)/(TGA weight reduction rate of pure EU-2 reference sample) X 100 (here, the TGA weight reduction rate of the EU-2 sample is measured under the condition that the sample is heated from 120°C to 550°C at a heating rate of 2 °C/min and then maintained at 550°C for 2 hours), wherein the step (a) comprises the steps of: (i) mixing a template material with an aqueous alkali solution including a silica raw material and an alumina raw material; (ii) reacting the mixture at a temperature of 50 ∼ 250°C to obtain an EU-2 zeolite, the degree of phase transition of which is controlled such that the phase transition index (T) thereof is 50 ≤ T <100; and (iii) washing and drying the EU-2 zeolite, wherein the pure EU-2 reference sample is synthesized for 48 hours under the same conditions as the EU-2 zeolite support.
Monopile foundation for an offshore structure, in particular for a wind turbine (W), with a foundation pile for supporting the structure and a foundation reinforcement adjoining the foundation pile on the outside, wherein the foundation reinforcement has a sleeve , a collar and at least one support , wherein the sleeve is assigned to the foundation pile and the collar is held spaced apart outwards from the sleeve via the at least one support , wherein the foundation pile has a foundation section (GA) for being introduced into the seabed (M) and a reinforcement section (VA) for connecting the foundation pile to the sleeve above the seabed (M), wherein the collar is designed to be at least partially introduced into the seabed (M), wherein the foundation reinforcement has a plurality of, in particular two, three or four, reinforcement elements to be arranged next to one another in the circumferential direction of the foundation pile and wherein the sides of the reinforcement elements adjacent to one another in the circumferential direction are designed to be connected to one another in a positive-locking, articulated and/or force-fitting manner, characterised in that each reinforcement element has a sleeve element of the sleeve , a collar element of the collar and at least one support element of the support .
A skin treatment system comprising: a handheld microdermabrasion device comprising a main body and a tip , wherein the tip is positioned along a distal end of the handheld microdermabrasion device; a fluid delivery conduit configured to place the tip in fluid communication with a fluid source; a suction conduit configured to place the tip in fluid communication with a vacuum source; wherein each of the fluid delivery conduit and the suction conduit include at least one port , wherein the ports of the fluid delivery conduit and the suction conduit are located within an area defined by a lip of the tip; and wherein the tip further comprises at least one abrading member , the at least one abrading member being configured to abrade skin when the handheld microdermabrasion device is moved relative to a skin surface; and an air delivery conduit configured to deliver air to the tip, wherein the air delivery conduit is separate from the fluid delivery conduit and the suction conduit, wherein fluid delivered via the air delivery conduit is configured to provide pneumatic or mechanical agitation to the skin surface in order to apply a pressure on the skin surface, wherein the application of pressure on the skin surface enhances the passage of liquids through the skin surface during use. a handheld microdermabrasion device comprising a main body and a tip , wherein the tip is positioned along a distal end of the handheld microdermabrasion device; a fluid delivery conduit configured to place the tip in fluid communication with a fluid source; a suction conduit configured to place the tip in fluid communication with a vacuum source; wherein each of the fluid delivery conduit and the suction conduit include at least one port , wherein the ports of the fluid delivery conduit and the suction conduit are located within an area defined by a lip of the tip; and wherein the tip further comprises at least one abrading member , the at least one abrading member being configured to abrade skin when the handheld microdermabrasion device is moved relative to a skin surface; and an air delivery conduit configured to deliver air to the tip, wherein the air delivery conduit is separate from the fluid delivery conduit and the suction conduit, wherein fluid delivered via the air delivery conduit is configured to provide pneumatic or mechanical agitation to the skin surface in order to apply a pressure on the skin surface, wherein the application of pressure on the skin surface enhances the passage of liquids through the skin surface during use.
Pump system comprising an atomizer nozzle system having at least two atomizer nozzles for an electrohydrodynamic atomizer, wherein the pump system comprises at least one hose assembly as well as at least one pump rotor and at least one rolling body for forming a rolling region of a peristaltic pump, wherein the hose assembly comprises at least the same number of hose channels as the number of atomizer nozzles , and wherein each hose channel is assigned to an atomizer nozzle and connects it to the rolling region , characterized in that at least two, preferably three, pump rotors are formed, wherein each pump rotor moves at least one rolling body and is assigned to at least one hose channel .
An encoding apparatus for compression of a point cloud in a multi-dimensional space, wherein the encoding apparatus comprises: a processing circuitry configured to partition the multi-dimensional space into a plurality of cells (410a-g), wherein each point (101a,d) of the point cloud has a position within one of the plurality of cells (410a-g) and wherein each cell of the plurality of cells (410a-g) defines a primary reference position and at least one secondary reference position (401a-d); characterized in that the processing circuitry is further configured to determine for each point (101a,d) of the point cloud a refinement vector (403a,d), wherein the refinement vector (403a,d) defines depending on the position of the point (101a,d) the difference between the position of the point (101a,d) and the primary reference position or the difference between the position of the point (101a,d) and the at least one secondary reference position (401a-d); wherein the processing circuitry is further configured to encode the point cloud by encoding for each point (101a,d) of the point cloud depending on its position an identifier of the primary reference position or the at least one secondary reference position (401a-d) and the refinement vector (403a,d). a processing circuitry configured to partition the multi-dimensional space into a plurality of cells (410a-g), wherein each point (101a,d) of the point cloud has a position within one of the plurality of cells (410a-g) and wherein each cell of the plurality of cells (410a-g) defines a primary reference position and at least one secondary reference position (401a-d); characterized in that the processing circuitry is further configured to determine for each point (101a,d) of the point cloud a refinement vector (403a,d), wherein the refinement vector (403a,d) defines depending on the position of the point (101a,d) the difference between the position of the point (101a,d) and the primary reference position or the difference between the position of the point (101a,d) and the at least one secondary reference position (401a-d); wherein the processing circuitry is further configured to encode the point cloud by encoding for each point (101a,d) of the point cloud depending on its position an identifier of the primary reference position or the at least one secondary reference position (401a-d) and the refinement vector (403a,d).