mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus suitable for separating organics from a contaminated organics-inorganics waste stream comprising a hopper to receive the contaminated organics-inorganics waste stream from different sources, a vertical separator, and a conveyor configured to feed the vertical separator, wherein the vertical separator is contained in a round or rectangular housing that separates inorganics from the organics by creating a vortex effect within a perforated screening drum by which solid contaminants comprising paper, plastic, and/or metals are blown by air in a spiral pattern upwards and removed from a top of the vertical separator, while the organics are removed from a bottom of the vertical separator, an inner rotating paddle-drum to which a multiplicity of inclined paddles are attached to an external surface thereof creating a twister effect, characterized in that a plurality of chains are configured to rotate and prevent fouling of the paddles, the chains are attached to the external surface of the inner rotating paddle drum and adjacent to entrance of the perforated screening drum , wherein a length of the chains is greater than a radial dimension of the paddles but shorter than a radial distance between the inner rotating paddle-drum and the perforated screening drum waste stream comprising a hopper to receive the contaminated organics-inorganics waste stream from different sources, a vertical separator, and a conveyor configured to feed the vertical separator, wherein the vertical separator is contained in a round or rectangular housing that separates inorganics from the organics by creating a vortex effect within a perforated screening drum by which solid contaminants comprising paper, plastic, and/or metals are blown by air in a spiral pattern upwards and removed from a top of the vertical separator, while the organics are removed from a bottom of the vertical separator, an inner rotating paddle-drum to which a multiplicity of inclined paddles are attached to an external surface thereof creating a twister effect, characterized in that a plurality of chains are configured to rotate and prevent fouling of the paddles, the chains are attached to the external surface of the inner rotating paddle drum and adjacent to entrance of the perforated screening drum , wherein a length of the chains is greater than a radial dimension of the paddles but shorter than a radial distance between the inner rotating paddle-drum and the perforated screening drum
A combustor , comprising: a liner including first and second spaced apart liner walls defining a combustion chamber therebetween, an end wall joining the first and second liner walls at a forward end; a support configured to resiliently support the liner , the support including a first support wall having a first retainer and a second spaced apart support wall having a second retainer , the first and second retainers being configured to capture aft ends of the first and second liner walls respectively, wherein the liner includes a ceramic matrix composite material and the support includes a metallic material; wherein the aft ends of the first and second liner walls each include a sloped edge extending towards an interior of the combustion chamber and angled forward towards the end wall , the sloped edges received in the first and second retainers ; characterized in that the first and second retainers are hooks extending in the forward direction towards the end wall configured to retain the aft ends of the first and second liner walls , respectively, in a radial and axial direction. a liner including first and second spaced apart liner walls defining a combustion chamber therebetween, an end wall joining the first and second liner walls at a forward end; a support configured to resiliently support the liner , the support including a first support wall having a first retainer and a second spaced apart support wall having a second retainer , the first and second retainers being configured to capture aft ends of the first and second liner walls respectively, wherein the liner includes a ceramic matrix composite material and the support includes a metallic material; wherein the aft ends of the first and second liner walls each include a sloped edge extending towards an interior of the combustion chamber and angled forward towards the end wall , the sloped edges received in the first and second retainers ; characterized in that the first and second retainers are hooks extending in the forward direction towards the end wall configured to retain the aft ends of the first and second liner walls , respectively, in a radial and axial direction.
Tool for removing a metal seal ring from a spark plug, comprising: - a housing having a receptacle space for the spark plug, wherein the housing has an open longitudinal side on which the receptacle space is exposed and is specified up to insert the spark plug into the receptacle space by way of the open longitudinal side, - a support device which projects into the receptacle space and against which the metal seal ring of the spark plug, when inserted into the receptacle space , rests in the axial direction (X-X), - a cutting device which is movable in the axial direction (X-X) of the tool in the receptacle space , wherein a gap for receiving the metal seal ring of the spark plug is formed between the cutting device and the support device , and - an activation device which can be operated by hand and is operatively connected to the cutting device in order to carry out the axial movement of the cutting device in the receptacle chamber and to move the cutting device in the axial direction (X-X) into the gap in order to cut the metal sealing ring. - a housing having a receptacle space for the spark plug, wherein the housing has an open longitudinal side on which the receptacle space is exposed and is specified up to insert the spark plug into the receptacle space by way of the open longitudinal side, - a support device which projects into the receptacle space and against which the metal seal ring of the spark plug, when inserted into the receptacle space , rests in the axial direction (X-X), - a cutting device which is movable in the axial direction (X-X) of the tool in the receptacle space , wherein a gap for receiving the metal seal ring of the spark plug is formed between the cutting device and the support device , and - an activation device which can be operated by hand and is operatively connected to the cutting device in order to carry out the axial movement of the cutting device in the receptacle chamber and to move the cutting device in the axial direction (X-X) into the gap in order to cut the metal sealing ring.
A computer-implemented method of providing a device, wherein the device is arranged for controlling airflow distribution in a lung of a respiratory system of a patient, the method comprising: - generating a first computer model of airflow through at least part of the respiratory system; - identifying, based on the first computer model, first diseased and healthy regions of the lung; - selecting, based on the first computer model and the first diseased and healthy regions of the lung, an airway passage for treatment; and - providing the device suited for placement in said selected airway passage for controlling the air flow distribution in the selected airway passage. - generating a first computer model of airflow through at least part of the respiratory system; - identifying, based on the first computer model, first diseased and healthy regions of the lung; - selecting, based on the first computer model and the first diseased and healthy regions of the lung, an airway passage for treatment; and - providing the device suited for placement in said selected airway passage for controlling the air flow distribution in the selected airway passage.
A test device to detect a detection object of a microfluidic device , the test device comprising: a rotary drive unit configured to rotate the microfluidic device ; a light emitting element configured to emit light onto the microfluidic device ; a detection module disposed at a position facing the light emitting element , and having a light receiving element configured to receive light emitted from the light emitting element and transmitted through the microfluidic device when the microfluidic device is positioned between the detection module and the light emitting element ; a detection module drive unit configured to move the detection module in a radial direction relative to the microfluidic device ; and a controller configured to control the rotary drive unit and the detection module drive unit such that a detection object within the microfluidic device is in alignment with the light receiving element , characterized in that the detection module comprises a temperature sensor to measure a temperature of the detection object , and the temperature sensor is selected from the group consisting of an infrared temperature sensor , a thermistor, a resistance temperature detector and a thermocouple. a rotary drive unit configured to rotate the microfluidic device ; a light emitting element configured to emit light onto the microfluidic device ; a detection module disposed at a position facing the light emitting element , and having a light receiving element configured to receive light emitted from the light emitting element and transmitted through the microfluidic device when the microfluidic device is positioned between the detection module and the light emitting element ; a detection module drive unit configured to move the detection module in a radial direction relative to the microfluidic device ; and a controller configured to control the rotary drive unit and the detection module drive unit such that a detection object within the microfluidic device is in alignment with the light receiving element , characterized in that the detection module comprises a temperature sensor to measure a temperature of the detection object , and the temperature sensor is selected from the group consisting of an infrared temperature sensor , a thermistor, a resistance temperature detector and a thermocouple.
Print head for parallel extrusion of printing medium, especially for the production of conductor tracks, having a printing medium inlet for the printing medium, which inlet is in fluid-conducting communication with a plurality of discharge openings of the print head, for simultaneous discharge of printing medium from the discharge openings, and having an expansion element which is arranged in the flow path of the printing medium between printing medium inlet and discharge openings in order to expand the flow cross-section in the flow direction of the printing medium to an aspect ratio of at least 3:1, wherein the print head has a base unit having the printing medium inlet and the expansion element , and a discharge unit which is detachably arranged on the base unit , the discharge unit having the plurality of discharge openings and at least one discharge filter for the printing medium, wherein in the operating state, with the discharge unit arranged on the base unit , the discharge filter is arranged in the flow path of the printing medium between printing medium inlet and discharge openings, characterised in that the print head has a base filter and/or a pre-filter, the base filter being arranged on the base unit in such a way that in the operating state the base filter is arranged in the flow path of the printing medium between printing medium inlet and discharge filter , the pre-filter being arranged on the discharge unit in such a way that in the operating state the pre-filter is arranged in the flow path of the printing medium before the discharge filter . having a printing medium inlet for the printing medium, which inlet is in fluid-conducting communication with a plurality of discharge openings of the print head, for simultaneous discharge of printing medium from the discharge openings, and having an expansion element which is arranged in the flow path of the printing medium between printing medium inlet and discharge openings in order to expand the flow cross-section in the flow direction of the printing medium to an aspect ratio of at least 3:1, wherein the print head has a base unit having the printing medium inlet and the expansion element , and a discharge unit which is detachably arranged on the base unit , the discharge unit having the plurality of discharge openings and at least one discharge filter for the printing medium, wherein in the operating state, with the discharge unit arranged on the base unit , the discharge filter is arranged in the flow path of the printing medium between printing medium inlet and discharge openings, characterised in that the print head has a base filter and/or a pre-filter, the base filter being arranged on the base unit in such a way that in the operating state the base filter is arranged in the flow path of the printing medium between printing medium inlet and discharge filter , the pre-filter being arranged on the discharge unit in such a way that in the operating state the pre-filter is arranged in the flow path of the printing medium before the discharge filter .
A superposition operation circuit, comprising a current generation circuit and a first operational amplifier , wherein the current generation circuit comprises a first input end, a second input end, and an output end, wherein a first voltage signal is input to the first input end, a second voltage signal is input to the second input end, and the current generation circuit is configured to convert the first voltage signal to a first current signal, convert the second voltage signal to a second current signal, and output a current difference between the first current signal and the second current signal through the output end; and a to-be-superposed analog signal is input to a positive-phase input end of the first operational amplifier , a negative-phase input end of the first operational amplifier is connected to an output end of the first operational amplifier , the output end of the first operational amplifier is connected to the output end of the current generation circuit by using a first resistor, and the first operational amplifier is configured to superpose the to-be-superposed analog signal on a voltage drop on the first resistor. the current generation circuit comprises a first input end, a second input end, and an output end, wherein a first voltage signal is input to the first input end, a second voltage signal is input to the second input end, and the current generation circuit is configured to convert the first voltage signal to a first current signal, convert the second voltage signal to a second current signal, and output a current difference between the first current signal and the second current signal through the output end; and a to-be-superposed analog signal is input to a positive-phase input end of the first operational amplifier , a negative-phase input end of the first operational amplifier is connected to an output end of the first operational amplifier , the output end of the first operational amplifier is connected to the output end of the current generation circuit by using a first resistor, and the first operational amplifier is configured to superpose the to-be-superposed analog signal on a voltage drop on the first resistor.
A system comprising: a processing resource; and a memory resource storing instructions executable by the processing resource to: determine a plurality of source locations of an object from metadata associated with a definition of the object in a first syntax of a request to perform an action with regard to the object, wherein distinct data sources may be in distinct physical locations, have distinct data formats, and operate utilizing distinct syntaxes; identify a respective second syntax utilized by each source location of the plurality of source locations; identify a respective translation, defined in the metadata in a translation template, of the action included in the request to the respective second syntax; translate the action included in the request from the first syntax to the respective second syntax based on the identified translation; and derive the object from the plurality of source locations hosted within distinct systems utilizing the action translated in the respective distinct syntax of each of the plurality of source locations. a processing resource; and a memory resource storing instructions executable by the processing resource to: determine a plurality of source locations of an object from metadata associated with a definition of the object in a first syntax of a request to perform an action with regard to the object, wherein distinct data sources may be in distinct physical locations, have distinct data formats, and operate utilizing distinct syntaxes; identify a respective second syntax utilized by each source location of the plurality of source locations; identify a respective translation, defined in the metadata in a translation template, of the action included in the request to the respective second syntax; translate the action included in the request from the first syntax to the respective second syntax based on the identified translation; and derive the object from the plurality of source locations hosted within distinct systems utilizing the action translated in the respective distinct syntax of each of the plurality of source locations. determine a plurality of source locations of an object from metadata associated with a definition of the object in a first syntax of a request to perform an action with regard to the object, wherein distinct data sources may be in distinct physical locations, have distinct data formats, and operate utilizing distinct syntaxes; identify a respective second syntax utilized by each source location of the plurality of source locations; identify a respective translation, defined in the metadata in a translation template, of the action included in the request to the respective second syntax; translate the action included in the request from the first syntax to the respective second syntax based on the identified translation; and derive the object from the plurality of source locations hosted within distinct systems utilizing the action translated in the respective distinct syntax of each of the plurality of source locations.
An image forming apparatus installed with at least one first application , the image forming apparatus comprising: a setting receiving unit configured to display a plurality of first setting screens for setting the first application and to receive an input of a setting value of the first application ; a storage unit configured to store first information used, by the setting receiving unit, to display the plurality of first setting screens for setting the first application ; an installation unit configured to install a second application on the image forming apparatus ; and an addition unit configured to add, in response to installation of the second application , second information used for displaying at least one second setting screen for setting the second application to the storage unit , the second information including location information indicating a location of the at least one second setting screen in a screen transition among the plurality of first setting screens , wherein the setting receiving unit controls the screen transition among the plurality of first setting screens and the at least one second setting screen to be displayed, based on the location information of the second information added to the storage unit , the second setting screen being operative to receive an input of a setting value corresponding to the second application , and characterised in that : the adding second information used for displaying at least one second setting screen for setting the second application to the storage unit comprises setting a plurality of locations for a single (i) setting value and (ii) setting information. a setting receiving unit configured to display a plurality of first setting screens for setting the first application and to receive an input of a setting value of the first application ; a storage unit configured to store first information used, by the setting receiving unit, to display the plurality of first setting screens for setting the first application ; an installation unit configured to install a second application on the image forming apparatus ; and an addition unit configured to add, in response to installation of the second application , second information used for displaying at least one second setting screen for setting the second application to the storage unit , the second information including location information indicating a location of the at least one second setting screen in a screen transition among the plurality of first setting screens , wherein the setting receiving unit controls the screen transition among the plurality of first setting screens and the at least one second setting screen to be displayed, based on the location information of the second information added to the storage unit , the second setting screen being operative to receive an input of a setting value corresponding to the second application , and characterised in that : the adding second information used for displaying at least one second setting screen for setting the second application to the storage unit comprises setting a plurality of locations for a single (i) setting value and (ii) setting information.
A wireless communication method for a wireless device operable in a first wireless communication network and a second wireless communication network, the method comprising: receiving , from the first wireless communication network, an identification of one or more network nodes of the second wireless communication network, the one or more network nodes of the second wireless communication network operable to process traffic for the wireless device; receiving an instruction from the second wireless communication network to move traffic from a first network node of the second wireless communication network to a second network node of the second wireless communication network, the first network node being one of the identified one or more network nodes of the second wireless communication network; determining that an identification of the second network node is not included in the received identification of one or more network nodes of the second wireless communication network; and reporting , in response to the determining , to the first wireless network, a reason for moving traffic from the first network node of the second wireless communication network to the second network node of the second wireless communication network. receiving , from the first wireless communication network, an identification of one or more network nodes of the second wireless communication network, the one or more network nodes of the second wireless communication network operable to process traffic for the wireless device; receiving an instruction from the second wireless communication network to move traffic from a first network node of the second wireless communication network to a second network node of the second wireless communication network, the first network node being one of the identified one or more network nodes of the second wireless communication network; determining that an identification of the second network node is not included in the received identification of one or more network nodes of the second wireless communication network; and reporting , in response to the determining , to the first wireless network, a reason for moving traffic from the first network node of the second wireless communication network to the second network node of the second wireless communication network.