mhurhangee/patent-ind-claim-en huggingface dataset:
Drinking vessel holder for a motor vehicle (K), with at least one pot-like receiving space which is delimited by an upper border facing an interior (I) of the motor vehicle (K) in the installed state, at least one elongate light guide being applied to the border, and with at least one illuminant , the light rays (L) of which can be coupled into the light guide and decoupled again perpendicularly to its longitudinal extension (LE), the light guide having a light guide cross-section (Q) at at least one point (S1, S2) extending in the longitudinal extension (LE) of the light guide , in which cross-section the propagation of the coupled light rays (L) within and in the longitudinal extension (LE) of the light guide is interrupted at least in some regions by at least a second, opaque material component , the opaque material component being integrally bonded to the light guide , characterized in that at this point (S1, S2) either the entire light guide cross-section (Q) is filled by the opaque material component and, viewed in the longitudinal extension (LE) of the light guide , the surface formed by the opaque material component and a transparent surface (O3) of the light guide adjacent thereto and formed by a transparent material component are flush with one another or characterized in that viewed in the longitudinal extension (LE) of the light guide , the surface formed by the opaque material component and a transparent surface (O3) of the light guide adjacent thereto and formed by a transparent material component are flush with one another and at this point (S1, S2) the light guide cross-section (Q) is divided into a first part (Q1) with the opaque material component and a second part (Q2) with the transparent material component , where, viewed over the length of the point (S1, S2) extending in the longitudinal extension (LE) of the light guide , the opaque material component forms a part of a surface of the light guide and the transparent material component forms the remaining part of a surface of the light guide .
A three dimensional hydrogen evolution reaction (HER) catalyst, comprising: a porous Ni foam support; a NiSe 2 scaffold positioned on the support; and a layered transition metal dichalcogenide (LTMDC) particles with binary or ternary phase positioned on the NiSe 2 scaffold, wherein the layered transition metal dichalcogenides (LTMDC) particles comprise vertically oriented layers and wherein the layered transition metal dichalcogenides (LTMDC) particles comprise MoS 2(1-x) Se 2x or WS 2(1-x) Se 2x particles. a porous Ni foam support; a NiSe 2 scaffold positioned on the support; and a layered transition metal dichalcogenide (LTMDC) particles with binary or ternary phase positioned on the NiSe 2 scaffold, wherein the layered transition metal dichalcogenides (LTMDC) particles comprise vertically oriented layers and wherein the layered transition metal dichalcogenides (LTMDC) particles comprise MoS 2(1-x) Se 2x or WS 2(1-x) Se 2x particles.
A method for determining impedance of a variable impedance component, comprising - tuning a voltage-controlled oscillator over a predefined frequency tuning range, the oscillator having a resonator as a variable impedance component coupled as a load thereof, - measuring the frequency response of the tunable oscillator in at least two different states of said variable impedance component and as a function of the applied control voltage, and - analyzing the measured frequency responses and determining a difference between the resonating frequencies in the respective states of said variable impedance component for at least one control voltage value for determining the impedance of the variable impedance component . - tuning a voltage-controlled oscillator over a predefined frequency tuning range, the oscillator having a resonator as a variable impedance component coupled as a load thereof, - measuring the frequency response of the tunable oscillator in at least two different states of said variable impedance component and as a function of the applied control voltage, and - analyzing the measured frequency responses and determining a difference between the resonating frequencies in the respective states of said variable impedance component for at least one control voltage value for determining the impedance of the variable impedance component .
A vehicular lamp , comprising; a semiconductor light source unit having a light emitting chip ; a lens disposed on a front side of the light source unit ; and a reflector disposed at a position between the lens and the light source unit and on a lower side of the light emitting chip in a vertical direction, characterized in that a length of the lens is shorter in the vertical direction than in a horizontal direction, the reflector has a reflecting surface that forms a plurality of virtual focal points (F(N)) intersecting a vertical axis (Y) passing through a light emission center (O) of the light emitting chip , the reflecting surface performs light distribution control for radiating light from a light emission surface of the lens lower than a lens optical axis (Z) in the vertical direction, and when a point light source is assumed on the lens optical axis (Z), the lens is configured to perform light distribution control of first direct light (LM) on the lens optical axis (Z) from the point light source upward on the light emission surface of the lens .
An Internet of things, IoT, environment-based user terminal apparatus comprising: a transceiver configured to perform communication with a plurality of devices constituting the IoT environment; a display device configured to display a user interface comprising: a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device. a transceiver configured to perform communication with a plurality of devices constituting the IoT environment; a display device configured to display a user interface comprising: a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device. a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device.
A molded body with a hollow portion comprising fluorinated tetrafluoroethylene and perfluoro(alkyl vinyl ether) copolymer obtained by heat treating a melt-molded body with a hollow portion comprising fluorinated tetrafluoroethylene and perfluoro(alkyl vinyl ether) copolymer containing 3 to 50 weight % of perfluoro(alkyl vinyl ether) and having a melt flow rate of 0.1 to 100 g/10 min when measured with a load of 5 kg and a measurement temperature of 372 ± 0.1°C in accordance with ASTM D1238, wherein said heat treating is performed at a temperature of from 130°C below the melting point of said copolymer to the melting point of said copolymer, and wherein said molded body has a blister presence rate of 50% or less as calculated by the equation: blister presence rate = number of blisters in a heat treated molded body / number of blisters in an equivalent molded body that has not been heat treated.
A method for measuring structural health on hot spots of an aircraft structure, the method comprising: exciting a series of adjacently located actuators in the aircraft structure to produce a vibration, the series of adjacently located actuators comprising at least one group; collecting the vibration produced by the at least one group of the series of adjacently located actuators by one or more sensors locally disposed in one or more testing areas of the aircraft structure; comparing the measured vibration to a reference signal for each group of the series of adjacently located actuators ; generating a damage index "DI" for each group of the series of adjacently located actuators ; and using Bayesian network based data fusion of environmental information fused with the damage indexes from each group of the series of adjacently located actuators to estimate a damage characteristic in the aircraft structure based on the vibration measured by the one or more sensors. exciting a series of adjacently located actuators in the aircraft structure to produce a vibration, the series of adjacently located actuators comprising at least one group; collecting the vibration produced by the at least one group of the series of adjacently located actuators by one or more sensors locally disposed in one or more testing areas of the aircraft structure; comparing the measured vibration to a reference signal for each group of the series of adjacently located actuators ; generating a damage index "DI" for each group of the series of adjacently located actuators ; and using Bayesian network based data fusion of environmental information fused with the damage indexes from each group of the series of adjacently located actuators to estimate a damage characteristic in the aircraft structure based on the vibration measured by the one or more sensors.
A system for multi-modal tissue classification of an anatomical tissue, the system comprising: a workstation , comprising: an image registrator and a feature extractor structurally configured to generate a tissue classification volume of the anatomical tissue derived from a spatial registration and an image extraction of at least one MRI feature of the anatomical tissue and at least one ultrasound image feature of the anatomical tissue; and a tissue classifier structurally configured to classify each voxel of the tissue classification volume as one of a tissue type including at least a healthy tissue voxel and an unhealthy tissue voxel; the system further comprising: at least one MRI system structurally configured to generate the at least one MRI feature of the anatomical tissue; and at least one ultrasound system structurally configured to generate the at least one ultrasound image feature of the anatomical tissue. an image registrator and a feature extractor structurally configured to generate a tissue classification volume of the anatomical tissue derived from a spatial registration and an image extraction of at least one MRI feature of the anatomical tissue and at least one ultrasound image feature of the anatomical tissue; and a tissue classifier structurally configured to classify each voxel of the tissue classification volume as one of a tissue type including at least a healthy tissue voxel and an unhealthy tissue voxel; the system further comprising: at least one MRI system structurally configured to generate the at least one MRI feature of the anatomical tissue; and at least one ultrasound system structurally configured to generate the at least one ultrasound image feature of the anatomical tissue. at least one MRI system structurally configured to generate the at least one MRI feature of the anatomical tissue; and at least one ultrasound system structurally configured to generate the at least one ultrasound image feature of the anatomical tissue.
Use of a coupling for arrangement in a gas line of a gas-insulated switchgear, the coupling at least comprising: - a coupling housing ; - a supply port for a gas or gas mixture which has a flow direction through the coupling; - a coupling port ; - a measuring port for a measuring instrument, which measuring port is in fluid connection with the supply port and the coupling port ; and - a shutoff device having a closed position, wherein the shutoff device , when in the closed position, shuts off the fluid connection between the supply port and the measuring port , but not between the measuring port and the coupling port , wherein the coupling port is designed as a self-closing coupling port , in particular for connecting to a coupling counterpart which opens and closes the coupling port . - a coupling housing ; - a supply port for a gas or gas mixture which has a flow direction through the coupling; - a coupling port ; - a measuring port for a measuring instrument, which measuring port is in fluid connection with the supply port and the coupling port ; and - a shutoff device having a closed position,
A monitoring device configured to be attached to a subject, the monitoring device comprising: a photoplethysmography (PPG) sensor configured to measure multiple types of physiological information from the subject; and a processor coupled to the PPG sensor , wherein the processor is configured to receive and analyze signals produced by the PPG sensor , and wherein the processor is configured to: determine a change in stress level of the subject; characterised in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase sensor interrogation power and to increase signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease sensor interrogation power and to decrease signal analysis frequency. a photoplethysmography (PPG) sensor configured to measure multiple types of physiological information from the subject; and a processor coupled to the PPG sensor , wherein the processor is configured to receive and analyze signals produced by the PPG sensor , and wherein the processor is configured to: determine a change in stress level of the subject; characterised in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase sensor interrogation power and to increase signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease sensor interrogation power and to decrease signal analysis frequency. determine a change in stress level of the subject; characterised in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase sensor interrogation power and to increase signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease sensor interrogation power and to decrease signal analysis frequency. in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase sensor interrogation power and to increase signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease sensor interrogation power and to decrease signal analysis frequency.
A programmable logic controller , PLC, operating in an automation system , the programmable logic controller comprising: a processor; one or more control layer applications, each control layer application configured to perform a discrete set of automation functions; a database comprising a plurality of operator device identifiers; a wireless interface allowing the one or more control layer applications to communicate with a plurality of operator devices via the plurality of operator device identifiers; a device memory (110F3) comprising the one or more control layer applications; and a control layer application manager (110F4) configured to manage execution of the one or more control layer applications on the processor; wherein the control layer applications comprise a diagnostic application configured to (a) detect a fault occurring in the automation system via inputs received from one or more field devices (110A-110J); (b) generate a notification to at least one of the plurality of operator devices associated with the notification; (d) generate a message based on the notification event; and (e) transmit the message to the at least one of the plurality of operator devices using the wireless interface. a processor; one or more control layer applications, each control layer application configured to perform a discrete set of automation functions; a database comprising a plurality of operator device identifiers; a wireless interface allowing the one or more control layer applications to communicate with a plurality of operator devices via the plurality of operator device identifiers; a device memory (110F3) comprising the one or more control layer applications; and a control layer application manager (110F4) configured to manage execution of the one or more control layer applications on the processor; wherein the control layer applications comprise a diagnostic application configured to (a) detect a fault occurring in the automation system via inputs received from one or more field devices (110A-110J); (b) generate a notification to at least one of the plurality of operator devices associated with the notification; (d) generate a message based on the notification event; and (e) transmit the message to the at least one of the plurality of operator devices using the wireless interface.
A dust collection box for a robot vacuum cleaner , comprising: a box body provided with an air inlet and an air outlet ; a filter holder arranged in the box body and provided with an opening in a lateral surface of the filter holder ; a separation structure configured to block dust, and arranged in the box body and located at an air inlet side of the opening ; and a filter arranged to the filter holder and located at an air outlet side of the opening , characterized in that the air inlet and the air outlet are provided in a same lateral surface of the box body , and the air inlet is located below the air outlet . a box body provided with an air inlet and an air outlet ; a filter holder arranged in the box body and provided with an opening in a lateral surface of the filter holder ; a separation structure configured to block dust, and arranged in the box body and located at an air inlet side of the opening ; and a filter arranged to the filter holder and located at an air outlet side of the opening , characterized in that the air inlet and the air outlet are provided in a same lateral surface of the box body , and the air inlet is located below the air outlet .
An inflatable structure apparatus for use as an inflatable medical device, wherein the apparatus has a shell having a shell longitudinal axis, a central section, a first neck section and a second neck section , strips extending between the first neck section and the second neck section to provide added longitudinal stiffness to the apparatus, wherein the apparatus has a first aperture on the first neck section and/or a second aperture on the second neck section , wherein the strips also aid a refolding of the shell.
Method for producing a film-shaped test body (K; K1; K2; K3; K4) from a solidifiable test substance (S), wherein a) the test substance (S) is applied to a substrate , so that a substance film (L) is formed on the substrate ; b) a film-detachment tool (2; 21, 22; 23, 24) is placed on the substance film (L), the film-detachment tool (2; 21, 22; 23, 24) leaving a sub-region of the substance film (L) uncovered; c) the substance film (L) is solidified to form a test film (T) which adheres to the film-detachment tool (2; 21, 22; 23, 24); d) the film-detachment tool (2; 21, 22; 23, 24), together with the test film (T) adhering thereto, is separated from the substrate ; and e) the film-shaped test body (K; K1; K2; K3; K4) is formed by or from the test film (T) separated from the substrate . a) the test substance (S) is applied to a substrate , so that a substance film (L) is formed on the substrate ; b) a film-detachment tool (2; 21, 22; 23, 24) is placed on the substance film (L), the film-detachment tool (2; 21, 22; 23, 24) leaving a sub-region of the substance film (L) uncovered; c) the substance film (L) is solidified to form a test film (T) which adheres to the film-detachment tool (2; 21, 22; 23, 24); d) the film-detachment tool (2; 21, 22; 23, 24), together with the test film (T) adhering thereto, is separated from the substrate ; and e) the film-shaped test body (K; K1; K2; K3; K4) is formed by or from the test film (T) separated from the substrate .