mhurhangee/patent-ind-claim-en huggingface dataset:
A soundproof cover for covering a target object , the soundproof cover comprising: a sound absorbing sheet formed in a planar shape from a sound absorbing material and configured for covering a surface of the target object; and a reinforcing member disposed in a position suitable to engage with an engaged portion of the target object and positioning the sound absorbing sheet with respect to the target object with at least a portion of the sound absorbing sheet exposed, wherein the reinforcing member comprises: a first reinforcing portion which is an elongate member and is disposed in a position suitable to engage with a first engaged portion of the target object; and a second reinforcing portion which is an elongate member and is disposed in a position different from the first reinforcing portion, the soundproof cover being characterized in that : the sound absorbing sheet comprises a plurality of heat dissipating fins on a front surface thereof. a sound absorbing sheet formed in a planar shape from a sound absorbing material and configured for covering a surface of the target object; and a reinforcing member disposed in a position suitable to engage with an engaged portion of the target object and positioning the sound absorbing sheet with respect to the target object with at least a portion of the sound absorbing sheet exposed, wherein the reinforcing member comprises: a first reinforcing portion which is an elongate member and is disposed in a position suitable to engage with a first engaged portion of the target object; and a second reinforcing portion which is an elongate member and is disposed in a position different from the first reinforcing portion, a first reinforcing portion which is an elongate member and is disposed in a position suitable to engage with a first engaged portion of the target object; and a second reinforcing portion which is an elongate member and is disposed in a position different from the first reinforcing portion, the soundproof cover being characterized in that : the sound absorbing sheet comprises a plurality of heat dissipating fins on a front surface thereof.
A wireless headset comprising: a main body having two ends; a first wireless interface configured to perform wireless communication with an external audio source; sub-bodies detachably attached to both lateral ends of the main body by a retractable cable; earpieces detachably attached to the sub-bodies and configured to output a sound wiredly when supportedly installed in the sub-bodies, wherein the earpieces each comprise a second wireless interface configured to perform wireless communication with the first wireless interface and wherein the earpieces each further comprise a first sensing unit configured to sense whether the earpieces are coupled to or separated from the sub-bodies ; and a controller configured to receive an audio signal from the audio source through the first wireless interface and output the sound through the earpieces ; and to receive a sensing signal indicating separation of the earpieces from the respective first sensing unit and to activate the second wireless interface so as to output the sound wirelessly through the earpieces when the earpieces are separated from the sub-bodies . a main body having two ends; a first wireless interface configured to perform wireless communication with an external audio source; sub-bodies detachably attached to both lateral ends of the main body by a retractable cable; earpieces detachably attached to the sub-bodies and configured to output a sound wiredly when supportedly installed in the sub-bodies, wherein the earpieces each comprise a second wireless interface configured to perform wireless communication with the first wireless interface and wherein the earpieces each further comprise a first sensing unit configured to sense whether the earpieces are coupled to or separated from the sub-bodies ; and a controller configured to receive an audio signal from the audio source through the first wireless interface and output the sound through the earpieces ; and to receive a sensing signal indicating separation of the earpieces from the respective first sensing unit and to activate the second wireless interface so as to output the sound wirelessly through the earpieces when the earpieces are separated from the sub-bodies .
An event processing method performed by User Equipment, LTE, the method comprising: measuring relevant signals of at least two events; and performing handover when the at least two events meet a configured condition, wherein meeting the configured condition comprises: a part of events out of the at least two events meet corresponding trigger conditions; and/or a timing duration meets a second preset duration, and wherein the method further comprises: starting timing when the part of events out of the at least two events meet the corresponding trigger conditions; after the timing is started, triggering performance of the handover when the timing duration meets the second preset duration and other events out of the at least two events than the part of events meet the corresponding trigger conditions; and ending the timing when at least one of the part of events out of the at least two events does not meet the corresponding trigger condition. measuring relevant signals of at least two events; and performing handover when the at least two events meet a configured condition, wherein meeting the configured condition comprises: a part of events out of the at least two events meet corresponding trigger conditions; and/or a timing duration meets a second preset duration, and wherein the method further comprises: starting timing when the part of events out of the at least two events meet the corresponding trigger conditions; after the timing is started, triggering performance of the handover when the timing duration meets the second preset duration and other events out of the at least two events than the part of events meet the corresponding trigger conditions; and ending the timing when at least one of the part of events out of the at least two events does not meet the corresponding trigger condition. a part of events out of the at least two events meet corresponding trigger conditions; and/or a timing duration meets a second preset duration, and wherein the method further comprises: starting timing when the part of events out of the at least two events meet the corresponding trigger conditions; after the timing is started, triggering performance of the handover when the timing duration meets the second preset duration and other events out of the at least two events than the part of events meet the corresponding trigger conditions; and ending the timing when at least one of the part of events out of the at least two events does not meet the corresponding trigger condition. starting timing when the part of events out of the at least two events meet the corresponding trigger conditions; after the timing is started, triggering performance of the handover when the timing duration meets the second preset duration and other events out of the at least two events than the part of events meet the corresponding trigger conditions; and ending the timing when at least one of the part of events out of the at least two events does not meet the corresponding trigger condition.
A method of generating a collision diagnosis for a traffic event involving a vehicle , the method comprising: receiving an output from a single electrode self-capacitance sensor which is arranged to use the bodywork of the vehicle as the single electrode of the sensor, wherein the self-capacitance sensor detects the self-capacitance of the bodywork of the vehicle ; comparing the received output with at least one threshold to generate provisional collision detection data ; correlating the provisional collision detection data with further data relating to the traffic event to produce correlation data; and generating the collision diagnosis on the basis of the correlation data. receiving an output from a single electrode self-capacitance sensor which is arranged to use the bodywork of the vehicle as the single electrode of the sensor, wherein the self-capacitance sensor detects the self-capacitance of the bodywork of the vehicle ; comparing the received output with at least one threshold to generate provisional collision detection data ; correlating the provisional collision detection data with further data relating to the traffic event to produce correlation data; and generating the collision diagnosis on the basis of the correlation data.
An ice maker for freezing water into ice pieces, the ice maker comprising: an ice tray for forming ice pieces, an ice bin for receiving and storing ice pieces produced by the ice tray , an evaporator for cooling air conveyed through the ice tray and the ice bin , and an air handler assembly for conveying cooling air through the ice tray and the ice bin , wherein the air handler assembly comprises: a housing , and an evaporator fan assembly received in the housing , and an evaporation/defrost assembly , including the evaporator and a defrost heater , received in the housing , whereby the evaporator fan assembly comprises a fan for conveying the cooled air, and an air duct disposed between the evaporator and the fan for preventing migration of ice from the evaporator to the fan , the air duct having an opening extending from an end adjacent the evaporator to an end adjacent the fan and a lower inner wall of the air duct have a first downward ramped portion on the end adjacent the evaporator , and a second downward ramped portion on the end adj acent the fan, wherein the second downward ramped portion is shorter than the first downward ramped portion . an ice tray for forming ice pieces, an ice bin for receiving and storing ice pieces produced by the ice tray , an evaporator for cooling air conveyed through the ice tray and the ice bin , and an air handler assembly for conveying cooling air through the ice tray and the ice bin , wherein the air handler assembly comprises: a housing , and an evaporator fan assembly received in the housing , and an evaporation/defrost assembly , including the evaporator and a defrost heater , received in the housing , whereby the evaporator fan assembly comprises a fan for conveying the cooled air, and an air duct disposed between the evaporator and the fan for preventing migration of ice from the evaporator to the fan , the air duct having an opening extending from an end adjacent the evaporator to an end adjacent the fan and a lower inner wall of the air duct have a first downward ramped portion on the end adjacent the evaporator , and a second downward ramped portion on the end adj acent the fan, wherein the second downward ramped portion is shorter than the first downward ramped portion . a housing , and an evaporator fan assembly received in the housing , and an evaporation/defrost assembly , including the evaporator and a defrost heater , received in the housing , whereby the evaporator fan assembly comprises a fan for conveying the cooled air, and an air duct disposed between the evaporator and the fan for preventing migration of ice from the evaporator to the fan , the air duct having an opening extending from an end adjacent the evaporator to an end adjacent the fan and a lower inner wall of the air duct have a first downward ramped portion on the end adjacent the evaporator , and a second downward ramped portion on the end adj acent the fan, wherein the second downward ramped portion is shorter than the first downward ramped portion .
A heat exchanger comprising: a first plurality of passages extending in a first direction and to receive a first fluid; and a second plurality of passages extending in a second direction, and to receive a second fluid, said first plurality of passages being formed across a first cross-sectional face (F 1 ) of the heat exchanger , wherein a corner is defined at an upstream end of said first plurality of passages (128...138) and said second plurality of passages , and a flow cross-sectional area of said first and second pluralities of passages adjacent to said corner is less than at locations spaced from said corner, a cross-sectional area of passages in said first plurality of passages adjacent to said corner is less than a cross-sectional area of said passages in said first plurality of passages spaced further from said corner , said second plurality of passages being formed across a second cross-sectional face (F 2 ) of the heat exchanger , characterized in that a cross-sectional area of passages in said second plurality of passages adjacent to said corner is less than a cross-sectional area of said passages in said second plurality of passages spaced further from said corner . a first plurality of passages extending in a first direction and to receive a first fluid; and a second plurality of passages extending in a second direction, and to receive a second fluid, said first plurality of passages being formed across a first cross-sectional face (F 1 ) of the heat exchanger , wherein a corner is defined at an upstream end of said first plurality of passages (128...138) and said second plurality of passages , and a flow cross-sectional area of said first and second pluralities of passages adjacent to said corner is less than at locations spaced from said corner, a cross-sectional area of passages in said first plurality of passages adjacent to said corner is less than a cross-sectional area of said passages in said first plurality of passages spaced further from said corner , said second plurality of passages being formed across a second cross-sectional face (F 2 ) of the heat exchanger , characterized in that a cross-sectional area of passages in said second plurality of passages adjacent to said corner is less than a cross-sectional area of said passages in said second plurality of passages spaced further from said corner .
A sliding member comprising a first sliding surface , - the first sliding surface comprising a particulate support material and a graphene-containing material , - the particulate support material being at least partially coated with the graphene-containing material , and - a material bond being present between the particulate support material and the graphene-containing material , and - further comprising a first base body, said first base body exclusively comprising said particulate support material . - the first sliding surface comprising a particulate support material and a graphene-containing material , - the particulate support material being at least partially coated with the graphene-containing material , and - a material bond being present between the particulate support material and the graphene-containing material , and - further comprising a first base body, said first base body exclusively comprising said particulate support material .
A method for manufacturing an absolute and relative pressure measurement system in a wafer , the method comprising: - a first step wherein a shallow cavity and a deep cavity are etched in a base wafer , such that the depth of the shallow cavity is smaller than the depth of the deep cavity , - a second step wherein a top wafer is applied to the base wafer, - a third step wherein the top wafer is thinned for forming a first membrane over the shallow cavity and for forming a second membrane over the deep cavity , and wherein elements are formed in the top wafer , the elements allowing to perform pressure measurements and resulting together with the cavities and membranes in a first sensor and a second sensor , respectively, and - a fourth step wherein back thinning is applied on the base wafer such that the deep cavity is opened from the backside of the base wafer and that the shallow cavity is still closed by the backside of the base wafer , such that the system can be used for measuring an absolute pressure using the first sensor and a relative pressure using the second sensor , and wherein the etching of the first step defines the edges of the first membrane and of the second membrane in respectively the sensors formed from the shallow and the deep cavity. - a first step wherein a shallow cavity and a deep cavity are etched in a base wafer , such that the depth of the shallow cavity is smaller than the depth of the deep cavity , - a second step wherein a top wafer is applied to the base wafer, - a third step wherein the top wafer is thinned for forming a first membrane over the shallow cavity and for forming a second membrane over the deep cavity , and wherein elements are formed in the top wafer , the elements allowing to perform pressure measurements and resulting together with the cavities and membranes in a first sensor and a second sensor , respectively, and - a fourth step wherein back thinning is applied on the base wafer such that the deep cavity is opened from the backside of the base wafer and that the shallow cavity is still closed by the backside of the base wafer ,
A computer-implemented method for cognitive services for a flight management system (FMS) software as a service (SaaS) platform, comprising: obtaining training data; training one or more reinforcement learning models using the obtained training data to generate one or more trained reinforcement learning models; in response to receiving a request for cognitive services from a user device, analyzing a query of the request for cognitive services using at least one reinforcement learning model of the trained reinforcement learning model(s); determining intent, entity(s), emotion, and/or context of the query based on an output of the at least one reinforcement learning model to form a cognitive services request; applying a second at least one reinforcement learning model of the trained reinforcement learning model(s) to the cognitive services request to determine one or more services to invoke; and transmitting a result to the user device based on an output of the one of more invoked services. obtaining training data; training one or more reinforcement learning models using the obtained training data to generate one or more trained reinforcement learning models; in response to receiving a request for cognitive services from a user device, analyzing a query of the request for cognitive services using at least one reinforcement learning model of the trained reinforcement learning model(s); determining intent, entity(s), emotion, and/or context of the query based on an output of the at least one reinforcement learning model to form a cognitive services request; applying a second at least one reinforcement learning model of the trained reinforcement learning model(s) to the cognitive services request to determine one or more services to invoke; and transmitting a result to the user device based on an output of the one of more invoked services. in response to receiving a request for cognitive services from a user device, analyzing a query of the request for cognitive services using at least one reinforcement learning model of the trained reinforcement learning model(s); determining intent, entity(s), emotion, and/or context of the query based on an output of the at least one reinforcement learning model to form a cognitive services request; applying a second at least one reinforcement learning model of the trained reinforcement learning model(s) to the cognitive services request to determine one or more services to invoke; and transmitting a result to the user device based on an output of the one of more invoked services.
Reactive resin, containing: at least one accelerator with high reactivity; and at least one accelerator with low reactivity; wherein an accelerator with high reactivity is characterized in that a reactive resin has a gel time according to test example 1 of from 2 minutes to 40 minutes if it contains the accelerator with high reactivity as the only accelerator; an accelerator with low reactivity is characterized in that a reactive resin has a gel time according to test example 1 of from 40 minutes to 200 minutes if it contains the accelerator with low reactivity as the only accelerator; and wherein the molar ratio of the at least one accelerator with high reactivity with respect to the at least one accelerator with low reactivity is from 1.0:1.0 to 1.0:1.6, preferably from 1.0:1.1 to 1.0:1.6. at least one accelerator with high reactivity; and at least one accelerator with low reactivity; wherein an accelerator with high reactivity is characterized in that a reactive resin has a gel time according to test example 1 of from 2 minutes to 40 minutes if it contains the accelerator with high reactivity as the only accelerator; an accelerator with low reactivity is characterized in that a reactive resin has a gel time according to test example 1 of from 40 minutes to 200 minutes if it contains the accelerator with low reactivity as the only accelerator; and wherein the molar ratio of the at least one accelerator with high reactivity with respect to the at least one accelerator with low reactivity is from 1.0:1.0 to 1.0:1.6, preferably from 1.0:1.1 to 1.0:1.6.
A method for validating a network node, the method comprising: at a first network node: receiving , from a second network node, a first message associated with a mobile subscriber; sending , by the first network node, a query to the second network node, the query requesting identification information identifying mobile communications equipment of the mobile subscriber, wherein the identification information includes an international mobile equipment identity, IMEI; receiving , by the first network node, a response to the query from the second network node, wherein the response includes the IMEI; extracting , from the response, the IMEI; comparing the IMEI extracted from the response and validated identification information identifying the mobile communications equipment of the mobile subscriber, wherein the validated identification information includes a verified or known IMEI associated with the mobile subscriber from a trusted source separate from the second network node; in response to the IMEI extracted from the response matching the verified or known IMEI, recognizing the second network node as being authorized to send the first message and processing the first message; and in response to the IMEI extracted from the response not matching the verified or known IMEI, recognizing the second network node as not being authorized to send the first message and identifying the first message as a network security threat. receiving , from a second network node, a first message associated with a mobile subscriber; sending , by the first network node, a query to the second network node, the query requesting identification information identifying mobile communications equipment of the mobile subscriber, wherein the identification information includes an international mobile equipment identity, IMEI; receiving , by the first network node, a response to the query from the second network node, wherein the response includes the IMEI; extracting , from the response, the IMEI; comparing the IMEI extracted from the response and validated identification information identifying the mobile communications equipment of the mobile subscriber, wherein the validated identification information includes a verified or known IMEI associated with the mobile subscriber from a trusted source separate from the second network node; in response to the IMEI extracted from the response matching the verified or known IMEI, recognizing the second network node as being authorized to send the first message and processing the first message; and in response to the IMEI extracted from the response not matching the verified or known IMEI, recognizing the second network node as not being authorized to send the first message and identifying the first message as a network security threat.