mhurhangee/patent-ind-claim-en huggingface dataset:
Mobile infusion pump for the constant delivery of a fluid medium, the mobile infusion pump comprising a. an expandable balloon body for receiving the medium, b. a filling unit , which is in fluid connection with an internal volume of the balloon body , for filling the medium into the balloon body , and c. a delivery unit , which is in fluid connection with an internal volume of the balloon body , for delivering the medium from the balloon body , d. wherein the delivery unit is provided with a throttling unit for defining a delivery flow rate of the medium, characterized in that e. a part of the expandable balloon body is a tube body with a cross-sectional profile comprising a plurality of continuous longitudinal ribs (32; 34). a. an expandable balloon body for receiving the medium, b. a filling unit , which is in fluid connection with an internal volume of the balloon body , for filling the medium into the balloon body , and c. a delivery unit , which is in fluid connection with an internal volume of the balloon body , for delivering the medium from the balloon body , d. wherein the delivery unit is provided with a throttling unit for defining a delivery flow rate of the medium, characterized in that e. a part of the expandable balloon body is a tube body with a cross-sectional profile comprising a plurality of continuous longitudinal ribs (32; 34).
An integrated circuit, comprising: a p-type substrate; an n-well in, and forming a junction with, the p-type substrate; a device in the n-well, wherein the device in the n-well is a p-type transistor with a p+ doped source and a p+ doped drain; a p-well in and contiguous with the p-type substrate, the p-well forming a junction with the n-well; a device in the p-well, wherein the device in the p-well is a n-type transistor with a n+ doped source and a n+ doped drain; electrical interconnections between (i) biasing circuitry and (ii) the device in the n-well and the device in the p-well; no electrical interconnections between (i) the biasing circuitry and (ii) the n-well and the p-well; and the biasing circuitry configured to provide all bias voltages required by the device in the n-well and the device in the p-well for operation, wherein during operation of the device in the n-well and the device in the p-well, the biasing circuit is configured to apply: (i) a bias voltage arrangement to the device in the n-well and to the device in the p-well, (ii) no well bias voltage to the n-well such that the n-well floats during operation of the device in the n-well, and (iii) no well bias voltage to the p-well such that the p-well floats during operation of the device in the p-well; wherein no electrical connection is shared by the n-well and the p-well such that the n-well and the p-well are operable to float separately. a p-type substrate; an n-well in, and forming a junction with, the p-type substrate; a device in the n-well, wherein the device in the n-well is a p-type transistor with a p+ doped source and a p+ doped drain; a p-well in and contiguous with the p-type substrate, the p-well forming a junction with the n-well; a device in the p-well, wherein the device in the p-well is a n-type transistor with a n+ doped source and a n+ doped drain; electrical interconnections between (i) biasing circuitry and (ii) the device in the n-well and the device in the p-well; no electrical interconnections between (i) the biasing circuitry and (ii) the n-well and the p-well; and the biasing circuitry configured to provide all bias voltages required by the device in the n-well and the device in the p-well for operation, wherein during operation of the device in the n-well and the device in the p-well, the biasing circuit is configured to apply: (i) a bias voltage arrangement to the device in the n-well and to the device in the p-well, (ii) no well bias voltage to the n-well such that the n-well floats during operation of the device in the n-well, and (iii) no well bias voltage to the p-well such that the p-well floats during operation of the device in the p-well; wherein no electrical connection is shared by the n-well and the p-well such that the n-well and the p-well are operable to float separately.
Bicycle saddle comprising a saddle shell , a saddle frame connected with a lower side of the saddle shell , and a saddle pad arranged on an upper side of the saddle shell , the saddle pad comprising at least two pad elements (28, 30; 30), wherein an inner pad element is enclosed at least in part by an outer pad element , in particular overmolded or foam-encapsulated and is arranged in the seat region of the bicycle saddle, wherein a lower side of the inner pad element is in surface contact with the upper side of the saddle shell , characterized in that the inner pad element is designed as an elastomer body and comprises one or more particulate foams and a rear region of the inner pad element , directed rearward in the traveling direction and arranged at a rear side of the saddle shell , is not enclosed by an outer pad element , so that the inner pad element is visible. a saddle shell , a saddle frame connected with a lower side of the saddle shell , and a saddle pad arranged on an upper side of the saddle shell , the saddle pad comprising at least two pad elements (28, 30; 30), wherein an inner pad element is enclosed at least in part by an outer pad element , in particular overmolded or foam-encapsulated and is arranged in the seat region of the bicycle saddle, wherein a lower side of the inner pad element is in surface contact with the upper side of the saddle shell , characterized in that the inner pad element is designed as an elastomer body and comprises one or more particulate foams and a rear region of the inner pad element , directed rearward in the traveling direction and arranged at a rear side of the saddle shell , is not enclosed by an outer pad element , so that the inner pad element is visible.
A method of oxidizing aldehydes to carboxylic acids or of oxidizing aldehydes and ozonides to carboxylic acids, or of oxidizing ozonides to ketones and/or carboxylic acids, comprising the steps of: providing vanadium to oxidize aldehydes to carboxylic acids, or to oxidize the mixture of ozonides and aldehydes to carboxylic acids, or to oxidize the mixture of ozonides to carboxylic acids in the presence of air or oxygen at a temperature range between 10°C and 150°C in an acidic solvent.
A cage for farming aquatic organisms, the cage comprising a surrounding holding structure comprising a floating element which is connected to a closed enclosure , and a railing comprising an upright and a handrail connected to the floating element , the cage is provided with a suspended track connected to the surrounding holding structure and along the holding structure on a side facing a centre of the cage , the track being arranged to guide a tool carrier movably attached to the track , characterized in that : - the circumference of the track around the cage is smaller than the circumference of the railing around the cage ; - the track is provided with a plurality of elongated, inclined coupling members projecting at an angle upwards from the track to the holding structure for attaching the track to the holding structure ; - the track is endless; - the track is formed as a closed, elongated structure with a continuous surface; - each coupling member has been passed circumferentially around the track , transversely to the longitudinal direction of the track ; and - the track is adapted for carrying the tool carrier on a top side of the track . - the circumference of the track around the cage is smaller than the circumference of the railing around the cage ; - the track is provided with a plurality of elongated, inclined coupling members projecting at an angle upwards from the track to the holding structure for attaching the track to the holding structure ; - the track is endless; - the track is formed as a closed, elongated structure with a continuous surface; - each coupling member has been passed circumferentially around the track , transversely to the longitudinal direction of the track ; and - the track is adapted for carrying the tool carrier on a top side of the track .
A method operating at an adaptive bitrate network node , the method comprising: provisioning a plurality of different forward error correction configuration settings; generating forward error correction data associated with each segment of one or more adaptive bitrate representations of a media asset , wherein each of the one or more adaptive bitrate representations comprises a stream of segmented content of the media asset encoded at a particular bitrate, and the forward error correction data for each segment is generated using one of the plurality of different forward error correction configuration settings provisioned at the adaptive bitrate network node , such that a particular forward error correction mechanism is used for a particular segment of the one or more adaptive bitrate representations of the media asset ; and providing a manifest file associated with the media asset to an adaptive bitrate client , wherein the manifest file includes metadata information relative to each of the media segments encoded at different bitrates and using different forward error correction configuration settings. provisioning a plurality of different forward error correction configuration settings; generating forward error correction data associated with each segment of one or more adaptive bitrate representations of a media asset , wherein each of the one or more adaptive bitrate representations comprises a stream of segmented content of the media asset encoded at a particular bitrate, and the forward error correction data for each segment is generated using one of the plurality of different forward error correction configuration settings provisioned at the adaptive bitrate network node , such that a particular forward error correction mechanism is used for a particular segment of the one or more adaptive bitrate representations of the media asset ; and providing a manifest file associated with the media asset to an adaptive bitrate client , wherein the manifest file includes metadata information relative to each of the media segments encoded at different bitrates and using different forward error correction configuration settings.
An operation method of a voice recognition apparatus , the method comprising: executing a video content; receiving an audio signal during execution of the video content; performing voice recognition on the audio signal; acquiring content information of the video content being executed and context information of the voice recognition apparatus; analyzing a user input based on the content information from a voice recognized by performing the voice recognition; generating an answer based on the analyzed user input and the content information; and outputting the answer, wherein the generating of the answer comprises: determining a relevance of the answer; and correcting the answer based on the context information when it is determined that the answer is not appropriate, wherein the context information includes information related to a location of the voice recognition apparatus, whether the voice recognition apparatus is connected to another electronic device, and the characteristics of a user who uses the voice recognition apparatus. executing a video content; receiving an audio signal during execution of the video content; performing voice recognition on the audio signal; acquiring content information of the video content being executed and context information of the voice recognition apparatus; analyzing a user input based on the content information from a voice recognized by performing the voice recognition; generating an answer based on the analyzed user input and the content information; and outputting the answer, wherein the generating of the answer comprises: determining a relevance of the answer; and correcting the answer based on the context information when it is determined that the answer is not appropriate, wherein the context information includes information related to a location of the voice recognition apparatus, whether the voice recognition apparatus is connected to another electronic device, and the characteristics of a user who uses the voice recognition apparatus. determining a relevance of the answer; and correcting the answer based on the context information when it is determined that the answer is not appropriate, wherein the context information includes information related to a location of the voice recognition apparatus, whether the voice recognition apparatus is connected to another electronic device, and the characteristics of a user who uses the voice recognition apparatus.
A ceramic heater, configured to atomize liquid to form aerosol, the ceramic heater comprising: a ceramic body having a tube configuration and comprising a wall having an inner surface and an outer surface , the wall defining a plurality of through holes passing through the inner and outer surfaces to release the aerosol; and a heating element ; the ceramic heater being characterized in that the heating element is a metal heating layer printed on the outer surface of the ceramic body , wherein the metal heating layer is configured to be in contact with a liquid guiding body surrounding the ceramic heater; the ceramic heater comprising a thermistor layer with positive temperature coefficient or negative temperature coefficient printed on the inner surface of the ceramic body , wherein the thermistor layer and the metal heating layer are isolated from each other. a ceramic body having a tube configuration and comprising a wall having an inner surface and an outer surface , the wall defining a plurality of through holes passing through the inner and outer surfaces to release the aerosol; and a heating element ; the ceramic heater being characterized in that the heating element is a metal heating layer printed on the outer surface of the ceramic body , wherein the metal heating layer is configured to be in contact with a liquid guiding body surrounding the ceramic heater; the ceramic heater comprising a thermistor layer with positive temperature coefficient or negative temperature coefficient printed on the inner surface of the ceramic body , wherein the thermistor layer and the metal heating layer are isolated from each other.
Non-metallic interference pigments based on a flake-form non-metallic support, where the pigments have a particle size with a volume-weighted d 90 value of < 25 μm, the support has a coating comprising one or more successive layers of a colourless material having a refractive index n of n ≥ 1.8 with a geometrical overall layer thickness of at most 70 nm, and where the pigments have an outermost layer which has a geometrical layer thickness in the range from 0.5 to 5 nm and consists of at least 95% by weight, based on the weight of this layer, of carbon and comprises crystalline carbon in the form of graphite and/or graphene, and where the interference pigments have a specific powder resistance of less than 1x10 6 ohm*cm.
Computer-implemented method for obtaining a cumulative distribution function from a signal, the signal having a range, the method comprising receiving the signal at a first port of a 1-bit comparator and applying a stepping signal at a second port of the comparator, the stepping signal having a stepping range that is less than the range of the signal, wherein the stepping signal is applied in a first step with a first value to the second port and in subsequent steps the subsequent value is increased or decreased by the stepping range compared to the value in the immediately preceding step, collecting, for each step, an output value at the output port of the comparator, collecting the output values for each of the steps and obtaining, from the collection of output values, the cumulative distribution function.
Liner tube for the rehabilitation of sewers and drains, having an internal tubular film , a first ply of non-woven material disposed on the latter, and a second ply of glass-fibre material which is disposed on the ply of non-woven material and comprises a first and a second glass-fibre tape placed in an overlapping manner, wherein the first ply contains at least one tape of non-woven material which is wound in an overlapping manner and is impregnated with a liquid reaction resin that is able to be cured by light or heat, and the second ply contains at least one first tape from glass-fibre material which is impregnated with liquid reaction resin and which comprises glass fibres that extend in the longitudinal direction of the liner tube, characterized in that the non-woven material is a plastics non-woven material, and in that the first tape is a glass-fibre longitudinal tape which extends in the longitudinal direction of the liner tube and serves as a longitudinal reinforcement tape on which the liner tube is able to be pulled into a sewer to be rehabilitated.
Sensor assembly comprising an optical sensor having a sensing surface and a cleaning device for the optical sensor , the cleaning device comprising a gas flow channel oriented towards a target surface such that a gas flowing through the gas flow channel is discharged onto the target surface , wherein an outlet of the gas flow channel is facing the target surface and a central axis of the outlet intersects the target surface substantially at a center thereof and is oriented substantially at an angle of 30° to 70° to the target surface and wherein a cross-section (A) of the gas flow channel decreases in a gas flow direction characterized in that two air suction voids are provided on opposing sides of the gas flow channel adjacent to the outlet for providing air to be dragged toward the target surface by the gas flow discharged from the outlet , and wherein the sensing surface and the target surface substantially coincide such that the central axis of the outlet of the gas flow channel intersects the sensing surface substantially at a center thereof and is oriented substantially at an angle of 30° to 70° to the sensing surface . the cleaning device comprising a gas flow channel oriented towards a target surface such that a gas flowing through the gas flow channel is discharged onto the target surface , wherein an outlet of the gas flow channel is facing the target surface and a central axis of the outlet intersects the target surface substantially at a center thereof and is oriented substantially at an angle of 30° to 70° to the target surface and wherein a cross-section (A) of the gas flow channel decreases in a gas flow direction characterized in that two air suction voids are provided on opposing sides of the gas flow channel adjacent to the outlet for providing air to be dragged toward the target surface by the gas flow discharged from the outlet , and wherein the sensing surface and the target surface substantially coincide such that the central axis of the outlet of the gas flow channel intersects the sensing surface substantially at a center thereof and is oriented substantially at an angle of 30° to 70° to the sensing surface .
A light-emitting diode (LED) module , comprising: a housing body comprising: a top opening ; and a bottom opening coupled to the top opening ; a lens ; a wavelength converting element fixed to the bottom of the lens , wherein the lens is attached to the top of the housing body so the wavelength converting element is located in the top opening ; and an LED comprising a n-type layer, a light-emitting layer, and a p-type layer, wherein the LED is attached to the housing body in the bottom opening . a housing body comprising: a top opening ; and a bottom opening coupled to the top opening ; a top opening ; and a bottom opening coupled to the top opening ; a lens ; a wavelength converting element fixed to the bottom of the lens , wherein the lens is attached to the top of the housing body so the wavelength converting element is located in the top opening ; and an LED comprising a n-type layer, a light-emitting layer, and a p-type layer, wherein the LED is attached to the housing body in the bottom opening .
A method for manufacturing a slab comprising solid fillers and organic binders, said method comprises the following steps: i) providing a mixture comprising organic binders, one or more additives and solid fillers, wherein said solid fillers comprise fine particles and coarse particles; ii) providing a substrate layer having an organic binder absorption capacity; iii) contacting the mixture of step i) with the substrate layer of step ii); iv) exerting a force on the composite obtained in step iii) for migrating at least a part of said organic binder into said substrate layer; v) cooling the construction obtained in step iv); vi) removing said substrate layer from the construction obtained in step v) for obtaining the slab, wherein the weight percentage of organic binder is in a range of 5 - 40 wt.%, the weight percentage of solid fillers is in a range of 50 to 95 wt.%, the weight percentage of additives is in a range of 0.1-10 wt.%, all weight percentages being based on the total weight of the slab obtained after step vi), wherein step iv) is carried out in such a way that the coarse particles are concentrated adjacent to the substrate layer. i) providing a mixture comprising organic binders, one or more additives and solid fillers, wherein said solid fillers comprise fine particles and coarse particles; ii) providing a substrate layer having an organic binder absorption capacity; iii) contacting the mixture of step i) with the substrate layer of step ii); iv) exerting a force on the composite obtained in step iii) for migrating at least a part of said organic binder into said substrate layer; v) cooling the construction obtained in step iv); vi) removing said substrate layer from the construction obtained in step v) for obtaining the slab, wherein the weight percentage of organic binder is in a range of 5 - 40 wt.%, the weight percentage of solid fillers is in a range of 50 to 95 wt.%, the weight percentage of additives is in a range of 0.1-10 wt.%, all weight percentages being based on the total weight of the slab obtained after step vi), wherein step iv) is carried out in such a way that the coarse particles are concentrated adjacent to the substrate layer.
A wedge for use between rotor poles of a generator for supporting windings of the poles, comprising: a plurality of outer walls ; and at least one fluid orifice extending through at least one of the plurality of outer walls parallel to an axis of a generator with which the wedge is configured for use and configured to receive a fluid from a shaft of the generator and to allow the fluid to flow through the at least one of the plurality of outer walls to reduce a temperature of the windings; wherein the plurality of outer walls includes three radially outward walls and two radially inward walls that are configured to join at a junction proximal to the shaft and are each curved, the plurality of outer walls together defining an internal wedge cavity. a plurality of outer walls ; and at least one fluid orifice extending through at least one of the plurality of outer walls parallel to an axis of a generator with which the wedge is configured for use and configured to receive a fluid from a shaft of the generator and to allow the fluid to flow through the at least one of the plurality of outer walls to reduce a temperature of the windings; wherein the plurality of outer walls includes three radially outward walls and two radially inward walls that are configured to join at a junction proximal to the shaft and are each curved, the plurality of outer walls together defining an internal wedge cavity.