mhurhangee/patent-ind-claim-en huggingface dataset:
A system for monitoring heart function based on heart sounds (HS), comprising: electrodes configured to sense electrical cardiac activity (CA) signals over a period of time; an HS sensor configured to sense HS signals over the period of time; memory to store specific executable instructions; one or more processors that, when executing the specific executable instructions, is configured to: identify a characteristic of interest (COI) of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval (SI); and record the at least one of the EMAT or SI, characterized in that one or more processors is, when executing the specific executable instructions, further configured to: overlay a HS search window onto an HS segment of the HS signals based on the COI from the CA signals; calculate a center of mass (COM) for at least one of S1 or S2 HS based on the HS segment of the HS signals within the search window to obtain a corresponding at least one of S1 COM or S2 COM; and calculate the at least one of the EMAT or SI based on the at least one S1 COM or S2 COM. electrodes configured to sense electrical cardiac activity (CA) signals over a period of time; an HS sensor configured to sense HS signals over the period of time; memory to store specific executable instructions; one or more processors that, when executing the specific executable instructions, is configured to: identify a characteristic of interest (COI) of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval (SI); and record the at least one of the EMAT or SI, characterized in that one or more processors is, when executing the specific executable instructions, further configured to: identify a characteristic of interest (COI) of a heartbeat from the CA signals; calculate at least one of an electromechanical activation time (EMAT) or a systolic interval (SI); and record the at least one of the EMAT or SI, characterized in that one or more processors is, when executing the specific executable instructions, further configured to: overlay a HS search window onto an HS segment of the HS signals based on the COI from the CA signals; calculate a center of mass (COM) for at least one of S1 or S2 HS based on the HS segment of the HS signals within the search window to obtain a corresponding at least one of S1 COM or S2 COM; and calculate the at least one of the EMAT or SI based on the at least one S1 COM or S2 COM.
A heat dissipating structure having a plurality of heat dissipating members connected for enhancing heat dissipation from a heat source, wherein each of the heat dissipating members includes a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet, the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet, and a through passage penetrating in a winding direction of the heat conduction sheet, wherein the heat dissipating members orthogonally arranged to the winding direction of the heat conduction sheet are connected by a connection member. a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet, the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet, and a through passage penetrating in a winding direction of the heat conduction sheet, wherein the heat dissipating members orthogonally arranged to the winding direction of the heat conduction sheet are connected by a connection member.
A transponder apparatus for a transponder unit, wherein the transponder unit can be worn on a human or animal body , such as a collar, band or the like, the transponder apparatus comprising a UHF transponder and an HF transponder , wherein the UHF transponder is made up of a transponder support , a UHF antenna and a UHF chip , wherein the HF transponder is made up of an HF antenna and an HF chip , wherein the UHF antenna is disposed at the transponder support and is made up of conducting UHF antenna structures in transponder support planes which are spatially separated from one another, characterized in that , the transponder apparatus comprises an electrically-insulating attachment layer which connects the UHF transponder to the HF antenna, wherein the transponder apparatus comprises an electrically-insulating spacer element which is connected to the HF transponder and which spatially separates the UHF transponder and the HF transponder relative to a body , wherein the UHF transponder is disposed on the HF antenna, wherein a conducting HF antenna structure of the HF antenna extends beyond a covering surface of the UHF transponder and the HF antenna structure, wherein the HF transponder comprises a support substrate on which the HF antenna is disposed.
A female jack comprising: a reception aperture configured to accept a male plug ; one or more terminals ; a first spring contact ; characterized in that the first spring contact including: a first mating curvature configured to contact the male plug and maintain electrical contact between the male plug and the female jack ; and one or more flex joints running at least a portion of a length of the first spring contact , and two or more contacting lengths separated from one another by the one or more flex joints , wherein the one or more flex joints comprise one or more scores extending through a portion of a thickness of the first spring contact forming hinges between the two or more contacting lengths extending the portion of the length of the first spring contact , enabling the two or more hinged contacting lengths to move with respect to each other by pivoting relative to one another such that each contacting length can contact the male plug at a different point along a circumference of the male plug . a reception aperture configured to accept a male plug ; one or more terminals ; a first spring contact ; characterized in that the first spring contact including: a first mating curvature configured to contact the male plug and maintain electrical contact between the male plug and the female jack ; and one or more flex joints running at least a portion of a length of the first spring contact , and two or more contacting lengths separated from one another by the one or more flex joints , wherein the one or more flex joints comprise one or more scores extending through a portion of a thickness of the first spring contact forming hinges between the two or more contacting lengths extending the portion of the length of the first spring contact , enabling the two or more hinged contacting lengths to move with respect to each other by pivoting relative to one another such that each contacting length can contact the male plug at a different point along a circumference of the male plug . a first mating curvature configured to contact the male plug and maintain electrical contact between the male plug and the female jack ; and one or more flex joints running at least a portion of a length of the first spring contact , and two or more contacting lengths separated from one another by the one or more flex joints , wherein the one or more flex joints comprise one or more scores extending through a portion of a thickness of the first spring contact forming hinges between the two or more contacting lengths extending the portion of the length of the first spring contact , enabling the two or more hinged contacting lengths to move with respect to each other by pivoting relative to one another such that each contacting length can contact the male plug at a different point along a circumference of the male plug .
Transport device for transporting a load from a first altitude to a second altitude lower than the first altitude by being hooked to a guide line and descending along the guide line by gravity, the transport device comprising: - an electric motor , designed to at least raise the transport device from the second altitude to the first altitude , along the guide line , - a first battery , designed to power the electric motor , - an electric generator comprising a rotating portion , the electric generator being designed to recharge the first battery when the rotating portion is rotated as the transport device descends from the first altitude to the second altitude , the transport device being characterized in that it comprises: - electronic management means , configured on the one hand to detect a charge level of the first battery , and on the other hand to cause the first battery to emit a leakage current when the electronic management means detects that the charge level of the first battery exceeds a predetermined charge threshold value, - at least one current-receiving means , designed to absorb the leakage current from the first battery . - an electric motor , designed to at least raise the transport device from the second altitude to the first altitude , along the guide line , - a first battery , designed to power the electric motor , - an electric generator comprising a rotating portion , the electric generator being designed to recharge the first battery when the rotating portion is rotated as the transport device descends from the first altitude to the second altitude , the transport device being characterized in that it comprises: - electronic management means , configured on the one hand to detect a charge level of the first battery , and on the other hand to cause the first battery to emit a leakage current when the electronic management means detects that the charge level of the first battery exceeds a predetermined charge threshold value, - at least one current-receiving means , designed to absorb the leakage current from the first battery . - electronic management means , configured on the one hand to detect a charge level of the first battery , and on the other hand to cause the first battery to emit a leakage current when the electronic management means detects that the charge level of the first battery exceeds a predetermined charge threshold value, - at least one current-receiving means , designed to absorb the leakage current from the first battery .
Method for switching an inverter of an electric drive of a motor vehicle, wherein the inverter has at least one freewheeling operating mode , a short-circuit operating mode and a clocked operating mode , in which a conversion from a direct voltage into an alternating voltage or vice versa takes place, wherein the method comprises switching the inverter from a current operating mode to a target operating mode different from the current operating mode; determining a voltage value and/or a current value for the current operating mode; executing an adaptation operation as a function of the determined voltage value and/or the determined current value in order to adapt the voltage and/or current for the target operating mode; and switching to the target operating mode; characterized in that a characteristic time period is determined for each adaptation operation.
A melt-extruded film comprising a polymer composition, the polymer composition comprising at least one ethylene vinyl acetate polymer in an amount of at least 50 wt.% of the polymer composition and at least one transition metal salt in an amount of from 10 to 1,000 parts per million based on the weight of ethylene vinyl acetate polymers in the composition, wherein the polymer composition exhibits a heat flow of 0.7 watts per gram or more after being exposed to an oxygen atmosphere at a temperature of 180°C for a time period of 100 minutes or less as determined in accordance with ASTM D3895-14; wherein the ethylene vinyl acetate polymer has a vinyl acetate content of from 5 wt.% to 35 wt.%.
LED module comprising: a carrier with strip conductors disposed thereon, at least two chip scale package (CSP) LED chips disposed on a surface of the carrier , wherein the CSP LED chips have already been individually encapsulated during chip production with a casting compound comprising incorporated luminescent material particles and comprise p and n contacts on their rear side by means of which they are in direct contact with the strip conductors disposed on the carrier; and reflecting means , wherein the reflecting means respectively laterally surround the CSP LED chips and wherein the reflecting means are spaced apart from the side walls of the respective CSP LED chips , wherein the distance between CSP LED chips and reflecting means is between 0.05 and 1 mm. a carrier with strip conductors disposed thereon, at least two chip scale package (CSP) LED chips disposed on a surface of the carrier , wherein the CSP LED chips have already been individually encapsulated during chip production with a casting compound comprising incorporated luminescent material particles and comprise p and n contacts on their rear side by means of which they are in direct contact with the strip conductors disposed on the carrier; and reflecting means , wherein the reflecting means respectively laterally surround the CSP LED chips and wherein the reflecting means are spaced apart from the side walls of the respective CSP LED chips , wherein the distance between CSP LED chips and reflecting means is between 0.05 and 1 mm.
A liquid ejection head comprising: an element substrate having an energy-generating element configured to generate an energy for ejecting a liquid from an ejection orifice ; a support member for supporting the element substrate, the support member including a liquid chamber formed therein to supply the liquid to the ejection orifice; and a damper portion for absorbing vibration of the liquid inside the liquid chamber, the damper portion being flexible, wherein the support member has a through-hole for communicating with the liquid chamber at a position that is located above the liquid chamber in a vertical direction when the liquid ejection head is in a use orientation, characterized in that the damper portion has a taper portion that tapers downward in the vertical direction and is positioned in such a manner that the taper portion closes the through-hole, and the damper portion and the support member are attached to each other by a fixing member . an element substrate having an energy-generating element configured to generate an energy for ejecting a liquid from an ejection orifice ; a support member for supporting the element substrate, the support member including a liquid chamber formed therein to supply the liquid to the ejection orifice; and a damper portion for absorbing vibration of the liquid inside the liquid chamber, the damper portion being flexible, wherein the support member has a through-hole for communicating with the liquid chamber at a position that is located above the liquid chamber in a vertical direction when the liquid ejection head is in a use orientation, characterized in that the damper portion has a taper portion that tapers downward in the vertical direction and is positioned in such a manner that the taper portion closes the through-hole, and the damper portion and the support member are attached to each other by a fixing member .
An inkjet recording device , comprising: an inkjet head ; a carriage mounted with the inkjet head ; at least one of a setter and a detector, wherein the inkjet recording device is configured such that at least one of a speed and an acceleration of the carriage is set by the setter for each position of the carriage or detected by the detector for each pixel of an image to be formed; an obtainer that is a controller configured to obtain drive cycle dependency information on a droplet speed of ink discharged from the inkjet head by obtaining a droplet speed and drive cycle characteristics table from a storage of the inkjet recording device ; and a corrector that is configured to correct a control parameter during discharge of ink from the inkjet head , based on at least one of the speed and the acceleration of the carriage , and on the drive cycle dependency information on the droplet speed. an inkjet head ; a carriage mounted with the inkjet head ; at least one of a setter and a detector, wherein the inkjet recording device is configured such that at least one of a speed and an acceleration of the carriage is set by the setter for each position of the carriage or detected by the detector for each pixel of an image to be formed; an obtainer that is a controller configured to obtain drive cycle dependency information on a droplet speed of ink discharged from the inkjet head by obtaining a droplet speed and drive cycle characteristics table from a storage of the inkjet recording device ; and a corrector that is configured to correct a control parameter during discharge of ink from the inkjet head , based on at least one of the speed and the acceleration of the carriage , and on the drive cycle dependency information on the droplet speed.
Hydraulic installation operating a hydraulic turbine where sediment concentration in a water flow circulating through the installation is monitored, comprising: a pressure-reducing device connected to a primary sensor, the pressure-reducing device being designed to create hydraulic resistance in the water flow to produce an internal flow speed less than 15 m/s as a function of the operating head in the hydraulic turbine ; and a primary sensor to continuously measure the concentration of sediment in the water flow circulating through the installation. a pressure-reducing device connected to a primary sensor, the pressure-reducing device being designed to create hydraulic resistance in the water flow to produce an internal flow speed less than 15 m/s as a function of the operating head in the hydraulic turbine ; and a primary sensor to continuously measure the concentration of sediment in the water flow circulating through the installation.
An antimicrobial peptide comprising SEQ ID NO: 10, 11, 13 or 15.
Gripper (2; 170) for an apparatus (50; 108; 117; 124; 127; 136; 141; 190) for forming and/or laminating a film element , in particular for a draping frame , having at least two opposing gripper-jaw elements (26, 27; 175, 176), which are movable in relation to one another and are intended for gripping the film element , wherein the gripper (2; 170) has folding-over means for folding over a film edge around an edge of a carrier part , which is laminated with the film element .
Method for generating electrical energy, comprising the following steps: a) feeding hydrogen , oxygen and liquid water into a combustion chamber , b) oxidizing the hydrogen with the oxygen in the combustion chamber with formation of steam ; c) expanding the steam by means of a steam turbine , which drives an electrical generator , in which method the steam , after flowing through the steam turbine , is fed to a heat exchanger for discharging heat to a heat transfer medium , in which method the steam , after flowing through the steam turbine , is fed to a condenser and there is fully condensed to produce liquid water . a) feeding hydrogen , oxygen and liquid water into a combustion chamber , b) oxidizing the hydrogen with the oxygen in the combustion chamber with formation of steam ; c) expanding the steam by means of a steam turbine , which drives an electrical generator , in which method the steam , after flowing through the steam turbine , is fed to a heat exchanger for discharging heat to a heat transfer medium , in which method the steam , after flowing through the steam turbine , is fed to a condenser and there is fully condensed to produce liquid water . in which method the steam , after flowing through the steam turbine , is fed to a heat exchanger for discharging heat to a heat transfer medium , in which method the steam , after flowing through the steam turbine , is fed to a condenser and there is fully condensed to produce liquid water .
A storage bag , comprising: a collapsible pouch comprising an internal volume and an aperture at one end; a non-collapsible port assembly comprising a body and a snout , wherein the body comprises at least two conduits passing therethrough; a port reinforcing laminate overlapping the port assembly and the end of the collapsible pouch including the aperture to retain the port assembly with the body spaced apart from the collapsible pouch and the snout extending from the body into the internal volume through the aperture; and at least one peripheral cavity formed by the port reinforcing laminate and a portion of the port assembly and extending from the aperture of the collapsible pouch to at least one conduit so the at least one conduit is in fluid communication with the internal volume through the peripheral cavity. a collapsible pouch comprising an internal volume and an aperture at one end; a non-collapsible port assembly comprising a body and a snout , wherein the body comprises at least two conduits passing therethrough; a port reinforcing laminate overlapping the port assembly and the end of the collapsible pouch including the aperture to retain the port assembly with the body spaced apart from the collapsible pouch and the snout extending from the body into the internal volume through the aperture; and at least one peripheral cavity formed by the port reinforcing laminate and a portion of the port assembly and extending from the aperture of the collapsible pouch to at least one conduit so the at least one conduit is in fluid communication with the internal volume through the peripheral cavity.
Polyethylene polymer characterised by the following properties: A number average molecular weight Mn of at least 2.0 ∗ 10 5 g/mol, a weight average molecular weight of at least 2.0 ∗ 10 6 g/mol, a Mw/Mn ratio of more than 8, and a strain hardening slope of below 0.10 N/mm at 135 °C, wherein Mn and Mw are determined as provided in the description, and wherein the strain hardening slope is determined by: a) subjecting the polymer in powder form to compaction at a pressure of 200 bar, at 130°C, for 30 minutes to form tensile bars with a thickness of 1 mm, a width of 5 mm and a length of 15 mm; b)subjecting the so obtained bars to drawing at a tensile speed of 100 mm/min at a temperature of 135°C; c) drawing the bar from 10 mm to 400 mm using a force cell of 100N; d) measuring the force required for the elongation of the sample at the fixed temperature; e) plotting the force/elongation curve; f) determining the steepest positive slope after the yield point, said yield point being the first maximum in the force/elongation curve, said steepest positive slope being the strain hardening slope.
Method for generating an acoustic voice output in a domestic appliance , comprising the following steps: a) Identifying at least one pre-stored voice segment in dependence on a digital voice template , (b) Retrieving the identified voice segment , (c) Acoustic output of the retrieved voice segment , wherein a plurality of voice segments are pre-stored in a persistent information object , and are identified and/or retrieved in each case on the basis of at least one item of position information in the information object , wherein the individual voice segments and/or the voice template exclusively comprise predetermined sentences and/or words, wherein the sentences and/or words are recipe-related, wherein the information object is designed as an individual audio file , wherein the position information is time information for the voice segments of the audio file , wherein the voice segments each comprise audio data adapted to be output via an output device , wherein the voice template comprises predetermined words and/or sentences, wherein synthesized acoustic words and/or sentences and/or sentence combinations corresponding to the voice template are generated by the retrieval according to step b) and by recombining the voice segments as voice output. a) Identifying at least one pre-stored voice segment in dependence on a digital voice template , (b) Retrieving the identified voice segment , (c) Acoustic output of the retrieved voice segment ,