mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a modified alumina, the method comprising the steps of: i) providing an alumina suspension comprising alumina and water, the alumina suspension optionally being hydrothermally treated at a temperature of between 20 °C and 90°C for a period of between 0.5 and 5 hours to form a hydrothermally treated alumina suspension; ii) adding an organic modifier to the alumina suspension or the hydrothermally treated alumina suspension to form a modified alumina suspension; iii) hydrothermally treating the modified alumina suspension at a temperature of between 20 °C and 85°C for a period of between 0.5 and 5 hours to form a hydrothermally treated modified alumina suspension; and iv) drying the hydrothermally treated modified alumina suspension to form the modified alumina. i) providing an alumina suspension comprising alumina and water, the alumina suspension optionally being hydrothermally treated at a temperature of between 20 °C and 90°C for a period of between 0.5 and 5 hours to form a hydrothermally treated alumina suspension; ii) adding an organic modifier to the alumina suspension or the hydrothermally treated alumina suspension to form a modified alumina suspension; iii) hydrothermally treating the modified alumina suspension at a temperature of between 20 °C and 85°C for a period of between 0.5 and 5 hours to form a hydrothermally treated modified alumina suspension; and iv) drying the hydrothermally treated modified alumina suspension to form the modified alumina.
An alarm peripheral comprising a wall bracket for mounting said alarm peripheral to a surface , a sensor device mountable to said wall bracket , a battery pack for providing power to said alarm peripheral by means of connection means , wherein said battery pack is arranged within a space of said wall bracket , and wherein said wall bracket comprises an opening to said space and a hatch configured to close said opening , through which opening said battery pack is insertable into said space .
A method for phase-voltage based motor period measurement, the method comprising generating a commanded phase voltage; applying the commanded phase voltage to a first phase voltage input of an electric motor, a second phase voltage input of the electric motor, and a third phase voltage input of the electric motor, the first phase voltage input and the second phase voltage input being connected to a first differential capacitively coupled interface of a first integrated circuit and the second phase voltage input and the third phase voltage input being connected to a second differential capacitively coupled interface of a second integrated circuit; measuring , at an integrated analog comparator of the first integrated circuit, a first period of a phase voltage associated with the first phase voltage input and the second phase voltage input; comparing the first period of the phase voltage associated with the first phase voltage input and the second phase voltage input to a frequency associated with the commanded phase voltage; and in response to a determination that the first period of the phase voltage associated with the first phase voltage input and the second phase voltage input is outside of a range of the frequency associated with the commanded phase voltage, identifying a fault associated with at least one of the first integrated circuit and a corresponding signal path applying the commanded phase voltage to a first phase voltage input of an electric motor, a second phase voltage input of the electric motor, and a third phase voltage input of the electric motor, the first phase voltage input and the second phase voltage input being connected to a first differential capacitively coupled interface of a first integrated circuit and the second phase voltage input and the third phase voltage input being connected to a second differential capacitively coupled interface of a second integrated circuit; measuring , at an integrated analog comparator of the first integrated circuit, a first period of a phase voltage associated with the first phase voltage input and the second phase voltage input; comparing the first period of the phase voltage associated with the first phase voltage input and the second phase voltage input to a frequency associated with the commanded phase voltage; and in response to a determination that the first period of the phase voltage associated with the first phase voltage input and the second phase voltage input is outside of a range of the frequency associated with the commanded phase voltage, identifying a fault associated with at least one of the first integrated circuit and a corresponding signal path
A clip nut comprising - a clip which has a first retaining device , a second retaining device and a connecting device which connects the first retaining device to the second retaining device , wherein the distance between the retaining devices is variable, - wherein the extent of the first retaining device and the second retaining device substantially define an x-axis and the extent of the connecting device substantially defines a z-axis and wherein a y-axis is located perpendicular to the x-axis and the z-axis, and - a nut which is arranged on the second retaining device such that an axis of the nut is able to be aligned parallel to the z-axis and/or perpendicular to the x-axis, - wherein the axis of the nut is pivotable from its position parallel to the z-axis and/or perpendicular to the x-axis about the y-axis in a xz-plane by surrendering its parallelism relative to the z-axis and/or its perpendicular position relative to the x-axis, characterised in that a seal facing the first retaining device is provided on the nut and in that when inserting a component , to which the clip nut is intended to be fastened, the contact surface of the first retaining device and the seal , as a contact surface of the nut , may be aligned parallel to one another by rotating the nut and the component may be brought into direct contact therewith. - a clip which has a first retaining device , a second retaining device and a connecting device which connects the first retaining device to the second retaining device , wherein the distance between the retaining devices is variable, - wherein the extent of the first retaining device and the second retaining device substantially define an x-axis and the extent of the connecting device substantially defines a z-axis and wherein a y-axis is located perpendicular to the x-axis and the z-axis, and - a nut which is arranged on the second retaining device such that an axis of the nut is able to be aligned parallel to the z-axis and/or perpendicular to the x-axis, - wherein the axis of the nut is pivotable from its position parallel to the z-axis and/or perpendicular to the x-axis about the y-axis in a xz-plane by surrendering its parallelism relative to the z-axis and/or its perpendicular position relative to the x-axis,
A method of making an absorbent structure comprising: forming a stock mixture of fibers, a cationic wet strength resin, an anionic polyacrylamide and a cellulase enzyme; and at least partially drying the stock mixture to form a web. forming a stock mixture of fibers, a cationic wet strength resin, an anionic polyacrylamide and a cellulase enzyme; and at least partially drying the stock mixture to form a web.
A container having an opening and a closure movable between a first position in which the container is in a normal upright position and the opening is closed, and a second position in which the container is tilted in order to dispense its contents in use and the opening is exposed, the closure comprising a closure flap located within the container and a pivot arm , the pivot arm having a first arm portion secured to the closure flap and a second arm portion having a weighted portion , the pivot arm being pivotally mounted within the container at a pivot point located between the first and second arm portions , characterised in that when the container is in a first position, the second arm portion hangs vertically from the pivot and acts to bias the closure flap to close the opening and when the container is rotated in a first direction to a second position, the weighted portion causes the pivot arm and the closure flap to rotate relative to the container in a second direction opposite to the first direction, thereby to bias the closure flap away from the opening in order to expose the opening .
A light extraction substrate for an organic light-emitting device, comprising: a base substrate ; a scattering layer disposed on the base substrate , the scattering layer being formed from TiO 2 , a number of voids, as first light-scattering elements , formed within the scattering layer ; and a planarization layer disposed on the scattering layer , wherein the scattering layer is infiltrated by a same material as a planarization-forming material from which the planarization layer is formed, characterized in that the scattering layer comprises dendritic shape crystalline solids of TiO2 or rod shape crystalline solids of TiO2. a base substrate ; a scattering layer disposed on the base substrate , the scattering layer being formed from TiO 2 , a number of voids, as first light-scattering elements , formed within the scattering layer ; and a planarization layer disposed on the scattering layer , wherein the scattering layer is infiltrated by a same material as a planarization-forming material from which the planarization layer is formed, characterized in that the scattering layer comprises dendritic shape crystalline solids of TiO2 or rod shape crystalline solids of TiO2.
A method for training a speech separation model, executable by a computer device, the method comprising: obtaining a first audio signal and a second audio signal, wherein the first audio signal comprises a target audio signal component and a labeled audio signal component, and the second audio signal comprising a noise audio signal; obtaining an encoding model, an extraction model, and an initial estimation model, wherein an output of the encoding model is inputted to the extraction model, both the output of the encoding model and an output of the extraction model are inputted to the estimation model, and the encoding model and the extraction model jointly perform speech separation; performing unsupervised training on the encoding model, the extraction model, and the estimation model according to the second audio signal |to adjust model parameters of the extraction model and the estimation model; performing supervised training on the encoding model and the extraction model according to the first audio signal and the labeled audio signal component comprised in the first audio signal to adjust a model parameter of the encoding model; and performing the unsupervised training and the supervised training in combination, until a training stop condition is met. obtaining a first audio signal and a second audio signal, wherein the first audio signal comprises a target audio signal component and a labeled audio signal component, and the second audio signal comprising a noise audio signal; obtaining an encoding model, an extraction model, and an initial estimation model, wherein an output of the encoding model is inputted to the extraction model, both the output of the encoding model and an output of the extraction model are inputted to the estimation model, and the encoding model and the extraction model jointly perform speech separation; performing unsupervised training on the encoding model, the extraction model, and the estimation model according to the second audio signal |to adjust model parameters of the extraction model and the estimation model; performing supervised training on the encoding model and the extraction model according to the first audio signal and the labeled audio signal component comprised in the first audio signal to adjust a model parameter of the encoding model; and performing the unsupervised training and the supervised training in combination, until a training stop condition is met.
A system comprising: a programmable implantable cardiac monitoring device having first and second sense electrodes on a housing of the device, a programmer , responsive to entry of a patient's age, the programmer being configured to thereafter transmit a programming command from the programmer to the implantable device including an arrhythmia detection criterion based upon the patient's age, and responsive to entry of a reason for monitoring, the programmer configured to thereafter transmit and/or store a programming command from the programmer to the implantable device including a prioritization of an arrhythmia storage criterion, wherein a prioritized set of waveforms for long term storage as well as a prioritized reduced set of waveforms for daily transmission is defined; wherein the implantable device is configured to, responsive to receipt of the programming commands, thereafter detect the arrhythmia according to the criterion and transmit records of the arrhythmia according to the prioritization; and wherein the implantable cardiac monitoring device is a leadless implantable cardiac monitoring device. a programmable implantable cardiac monitoring device having first and second sense electrodes on a housing of the device, a programmer , responsive to entry of a patient's age, the programmer being configured to thereafter transmit a programming command from the programmer to the implantable device including an arrhythmia detection criterion based upon the patient's age, and responsive to entry of a reason for monitoring, the programmer configured to thereafter transmit and/or store a programming command from the programmer to the implantable device including a prioritization of an arrhythmia storage criterion, wherein a prioritized set of waveforms for long term storage as well as a prioritized reduced set of waveforms for daily transmission is defined; wherein the implantable device is configured to, responsive to receipt of the programming commands, thereafter detect the arrhythmia according to the criterion and transmit records of the arrhythmia according to the prioritization; and wherein the implantable cardiac monitoring device is a leadless implantable cardiac monitoring device.
Anti-flooding barrier system for a building or structure, comprising a deployable sealing tarpaulin which provides the mechanical barrier system and remains in a dedicated recess when not in use, characterized in that said system is autonomous by virtue of an energy source within its own structure, ensuring its complete triggering and implementation autonomy, and it communicates by means of a radio communication module having its own independent energy source , making it possible to inform and alert its owner about its operating state; and in that the system ensures the monitoring of its operating state by the incorporation of the radio communication module which detects, by mechanical and/or electronic means, risks of flooding and/or high risks of rising water and alerts the owner of said barrier system, by LPWAN and/or 4G LTE and/or 5G radio communication means .
Chassis component having a component body , which comprises a plurality of joint-receiving regions and which is composed of a laminate of fibre-reinforced plastic, and having a plurality of joints , which are arranged in each case in one of the joint-receiving regions , wherein the laminate is twisted in a portion of the component body situated between a first of the joint-receiving regions and a second of the joint-receiving regions , such that the second joint-receiving region is rotationally offset with respect to the first joint-receiving region , characterized in that the second joint-receiving region is rotationally offset with respect to the first joint-receiving region by more than 0° but by less than 90°.
A system (12; 112) for adjusting a variable position vane (13; 113) in an aircraft engine , the system (12; 112) comprising: a fluid-actuated actuator (34; 116) operatively connected to cause positional adjustment of the variable position vane (13; 113); a transducer (36; 118; 224); a servo valve (32; 114) including a valve member (38; 120) cooperating with a spool (40; 122A) to control a flow of fluid to the fluid-actuated actuator (34; 116), the servo valve (32; 114) configured to control the flow of fluid to the fluid-actuated actuator (34; 116) based on an input indicative of a pressure (P3) of air pressurized by a compressor of the aircraft engine and positional feedback (F) from the variable position vane (13; 113); the transducer (36; 118; 224) is configured to generate the input to the servo valve (32; 114) based on a received signal indicative of the pressure (P3) of the air pressurized by the compressor of the aircraft engine ; and characterised in that the valve member (38; 120) and the spool (40; 122A) are separately rotatable about a common axis (B). a fluid-actuated actuator (34; 116) operatively connected to cause positional adjustment of the variable position vane (13; 113); a transducer (36; 118; 224); a servo valve (32; 114) including a valve member (38; 120) cooperating with a spool (40; 122A) to control a flow of fluid to the fluid-actuated actuator (34; 116), the servo valve (32; 114) configured to control the flow of fluid to the fluid-actuated actuator (34; 116) based on an input indicative of a pressure (P3) of air pressurized by a compressor of the aircraft engine and positional feedback (F) from the variable position vane (13; 113); the transducer (36; 118; 224) is configured to generate the input to the servo valve (32; 114) based on a received signal indicative of the pressure (P3) of the air pressurized by the compressor of the aircraft engine ; and characterised in that the valve member (38; 120) and the spool (40; 122A) are separately rotatable about a common axis (B).
A method for wireless communications in a logical cell (1302; 1304; 1500) comprising a base station (eNBO), BS, and one or more remote radio heads, RRHs, under control of the BS (eNB0) and distributed in different locations throughout the logical cell, the method being performed by the BS and comprising: receiving channel state information, CSI, feedback from a user equipment, UE; selecting one or more antenna ports for transmitting reference signals, RSs, to the UE, wherein the one or more antenna ports are selected from antenna ports of the BS (eNB0) and the RRHs; characterized in that the selecting is based on the CSI feedback, and in that the method further comprises: determining whether to update the selection of the one or more antenna ports based at least in part on a change in location of the UE in the logical cell (1302; 1304; 1500) or a mobility of the UE in the logical cell (1302; 1304; 1500), wherein to determine the change in location or mobility of the UE, a location of the UE is determined based on sounding reference signals, SRSs, transmitted from the UE and received at different RRHs or on global positioning system, GPS, coordinates of the UE reported to the BS. receiving channel state information, CSI, feedback from a user equipment, UE; selecting one or more antenna ports for transmitting reference signals, RSs, to the UE, wherein the one or more antenna ports are selected from antenna ports of the BS (eNB0) and the RRHs; characterized in that the selecting is based on the CSI feedback, and in that the method further comprises: determining whether to update the selection of the one or more antenna ports based at least in part on a change in location of the UE in the logical cell (1302; 1304; 1500) or a mobility of the UE in the logical cell (1302; 1304; 1500), wherein to determine the change in location or mobility of the UE, a location of the UE is determined based on sounding reference signals, SRSs, transmitted from the UE and received at different RRHs or on global positioning system, GPS, coordinates of the UE reported to the BS.
A genipin cross-linked alginate-chitosan microcapsule comprising an effective amount of one or more encapsulated antiperspirant active ingredients comprised from 92% to 98% by weight of the weight of the microcapsule, wherein the microcapsule has a percentage of crosslinking comprised from 20% to 40% expressed in absorbance values for free amino groups, in accordance with the test disclosed herein.
A fixing comprising: a head ; a body extending from the head to a distal end along a first axis; a resiliently deformable retaining arm configured to deform upon insertion of the body into a hole of a panel , such that, in use, the head and the retaining arm abut opposed first and second sides of the panel so as to secure the fixing to the panel , and a resiliently deformable leg extending from a distal position on the body towards the head and configured, in use, to abut an inner surface of the hole and biased to urge the fixing away from the inner surface , wherein, upon application of a lateral force to the fixing , the leg is configured to deform to allow the body to move laterally within the hole . a head ; a body extending from the head to a distal end along a first axis; a resiliently deformable retaining arm configured to deform upon insertion of the body into a hole of a panel , such that, in use, the head and the retaining arm abut opposed first and second sides of the panel so as to secure the fixing to the panel , and a resiliently deformable leg extending from a distal position on the body towards the head and configured, in use, to abut an inner surface of the hole and biased to urge the fixing away from the inner surface , wherein, upon application of a lateral force to the fixing , the leg is configured to deform to allow the body to move laterally within the hole .
A biopsy device, comprising: a work element configured to cut tissue and formed of a single split tube defining a longitudinal axis , a distal end of the work element being articulable via wedge-shaped cutouts and via a living hinge disposed between the wedge-shaped cutouts, the work element formed of the single split tube comprising first and second portions that are movable relative to each other and that are configured such that differential axial movement of the first portionrelative to the second portion actuates the work element ; and a distal sheath disposed over at least a portion of the work element , the distal sheath comprising an open scoopula-shaped distal portion. a work element configured to cut tissue and formed of a single split tube defining a longitudinal axis , a distal end of the work element being articulable via wedge-shaped cutouts and via a living hinge disposed between the wedge-shaped cutouts, the work element formed of the single split tube comprising first and second portions that are movable relative to each other and that are configured such that differential axial movement of the first portionrelative to the second portion actuates the work element ; and a distal sheath disposed over at least a portion of the work element , the distal sheath comprising an open scoopula-shaped distal portion.