mhurhangee/patent-ind-claim-en huggingface dataset:
A melter comprising a metal container intended to contain a product to be molten and a means for heating the container , said container being housed in an envelope that provides a space between the inner face of the envelope and the outer face of the container covered with heating fabrics , said space containing a heat insulator, said fabrics being connected to a power source piloted by a heating program in reference to temperature sensors equipping the melter, said melter being characterized in that the outer face of the container bottom and the outer face of the lateral wall of the stainless-steel container are each covered with a heating fabric , said fabrics being independent from each other, and in that , to pick-up the molten cheese, a duct , located at the base of the container containing the molten product, passes through the space delimited by the container and the envelope, to lead out into a flow control means , with a part of the duct replacing a part of the container bottom and forming a low point.
Apparatus comprising: an impeller comprising: at least one helical elongate element ; a spring , the spring being disposed inside of, and coaxially with, the helical elongate element ; and a film of material being supported between the helical elongate element and the spring ; characterized in that , the spring defines a lumen therethrough, and in that the impeller further comprises: proximal and distal bushings ; and a rigid shaft configured to extend from the proximal bushing to the distal bushing of the impeller via the lumen defined by the spring . an impeller comprising: at least one helical elongate element ; a spring , the spring being disposed inside of, and coaxially with, the helical elongate element ; and a film of material being supported between the helical elongate element and the spring ; at least one helical elongate element ; a spring , the spring being disposed inside of, and coaxially with, the helical elongate element ; and a film of material being supported between the helical elongate element and the spring ; characterized in that , the spring defines a lumen therethrough, and in that the impeller further comprises: proximal and distal bushings ; and a rigid shaft configured to extend from the proximal bushing to the distal bushing of the impeller via the lumen defined by the spring . proximal and distal bushings ; and a rigid shaft configured to extend from the proximal bushing to the distal bushing of the impeller via the lumen defined by the spring .
A method for marking codes on a beverage can tab structure comprising a plurality of tab body portions , each body portion having a surface with a coating that changes color or brightness to appear lighter when laser light is applied, the method comprising the steps of: (i) applying an approximately round laser light onto a first location on the surface of a tab body portion to achieve a light-colored spot, the fluence of the laser being too low to cause vaporization of the coating; after the applying step (i), (ii) repeatedly applying the approximately round laser light onto other locations on the surface of the body portion of the beverage can tab structure to achieve other light-colored spots, (iii) advancing the tab structure so that steps (i) and (ii) can be repeated for a next tab body portion, wherein the applying steps (i) and (ii) are applied in less than 75 ms and the laser light in the applying steps (i) and (ii) changes the color or brightness of the coating, thereby forming light-colored elements having a minimum characteristic dimension of at least 200 micrometers, the elements forming a two dimensional code that is readable by a wireless communication device; and reading, within a process time target of approximately 50 ms, the two dimensional code marked on a tab body portion. (i) applying an approximately round laser light onto a first location on the surface of a tab body portion to achieve a light-colored spot, the fluence of the laser being too low to cause vaporization of the coating; after the applying step (i), (ii) repeatedly applying the approximately round laser light onto other locations on the surface of the body portion of the beverage can tab structure to achieve other light-colored spots, (iii) advancing the tab structure so that steps (i) and (ii) can be repeated for a next tab body portion, wherein the applying steps (i) and (ii) are applied in less than 75 ms and the laser light in the applying steps (i) and (ii) changes the color or brightness of the coating, thereby forming light-colored elements having a minimum characteristic dimension of at least 200 micrometers, the elements forming a two dimensional code that is readable by a wireless communication device; and reading, within a process time target of approximately 50 ms, the two dimensional code marked on a tab body portion.
A method for estimating an accident risk of an autonomous driving unit , the method comprising: monitoring with a sensor in the driving unit at least one driving parameter of the driving unit during autonomous driving and determining driving values with an evaluation unit ; determining an autonomous-driving quantity which quantifies an autonomous-driving quality of the driving of the driving unit; and associating the autonomous-driving quantity with a plurality of manual-driving quantities, which have been determined from the at least one driving parameter during manual driving periods of different driving units, and determining an autonomous-driving accident rate value, characterized in that the autonomous-driving accident rate value is determined from accident rate values associated with the manual-driving quantities. monitoring with a sensor in the driving unit at least one driving parameter of the driving unit during autonomous driving and determining driving values with an evaluation unit ; determining an autonomous-driving quantity which quantifies an autonomous-driving quality of the driving of the driving unit; and associating the autonomous-driving quantity with a plurality of manual-driving quantities, which have been determined from the at least one driving parameter during manual driving periods of different driving units, and determining an autonomous-driving accident rate value, characterized in that the autonomous-driving accident rate value is determined from accident rate values associated with the manual-driving quantities.
An electrode catheter system, comprising an interventional catheter , provided with an electrode element that can release an electrical signal toward an inner wall of a renal artery blood vessel ; a pressure sensor for intervening to an artery blood vessel; and a data processing module, connected with the pressure sensor , wherein, the pressure sensor is configured to be arranged in the other renal artery blood vessel; a control filament and a first filament guide cavity that receives the control filament are arranged in the interventional catheter , and the electrode element is connected with the control filament , and the control filament slides in the first filament guide cavity by an external force,. the interventional catheter is further provided with an ablation element , and the ablation element is located at a distal end of the interventional catheter , characterized in that the electrode element is located at a proximal end of the ablation element , wherein the ablation element further comprises a balloon , fixed to the distal end of the interventional catheter ; and an ultrasonic transducer disposed in the balloon . an interventional catheter , provided with an electrode element that can release an electrical signal toward an inner wall of a renal artery blood vessel ; a pressure sensor for intervening to an artery blood vessel; and a data processing module, connected with the pressure sensor , wherein, the pressure sensor is configured to be arranged in the other renal artery blood vessel; a control filament and a first filament guide cavity that receives the control filament are arranged in the interventional catheter , and the electrode element is connected with the control filament , and the control filament slides in the first filament guide cavity by an external force,. the interventional catheter is further provided with an ablation element , and the ablation element is located at a distal end of the interventional catheter , characterized in that the electrode element is located at a proximal end of the ablation element , wherein the ablation element further comprises a balloon , fixed to the distal end of the interventional catheter ; and an ultrasonic transducer disposed in the balloon .
Section for a primary wall framework, including a web , having at its base a bottom flange forming a support, said flange including at least one sub-flange forming an angle with the web , said sub-flange having an end comprising a lip forming a means for guiding in translation for a spacer in use, the web and the lip extending from the same first face of the sub-flange , the first face of the sub-flange or the web comprising at least one tongue (206, 206', 206") forming an abutment in translation along a longitudinal direction (d) of the second , each tongue being formed from a strip on standby attached on one side by a root (207, 207', 207") to the first face of the sub-flange or to the web and having a free end on the other, the tongue being furthermore raised in relation to the first face of the sub-flange or to the web to allow a spacer to be inserted, the section being characterised in that at least one locking louvre is formed in the web of said section , said locking louvre limiting a movement along an orthogonal direction to the sub-flange of the spacer assembled with the section in use.
A receiver , comprising: means for receiving combined first and second signals, the first signal having data in a first narrowband frequency band and the second signal being an OFDM signal having data in a second wideband frequency band, wherein at least a portion of the first frequency band is within the second frequency band for a period of time; and means for recovering the data from the combined first and second signals in at least one of the first and second signals during the period of time; and wherein the data in the second signal is encoded with an error correction code, and wherein the means for recovering is further configured to convert the combined first and second signals into a frequency domain signal, decode the frequency domain second signal using the error correction code, and subtract the decoded frequency domain signal from the frequency domain second signal to recover the data in the first signal; and wherein the means for recovering is further configured to convert the difference between the decoded frequency domain signal and the frequency domain signal to a time domain signal to recover the data in the first signal. means for receiving combined first and second signals, the first signal having data in a first narrowband frequency band and the second signal being an OFDM signal having data in a second wideband frequency band, wherein at least a portion of the first frequency band is within the second frequency band for a period of time; and means for recovering the data from the combined first and second signals in at least one of the first and second signals during the period of time; and wherein the data in the second signal is encoded with an error correction code, and wherein the means for recovering is further configured to convert the combined first and second signals into a frequency domain signal, decode the frequency domain second signal using the error correction code, and subtract the decoded frequency domain signal from the frequency domain second signal to recover the data in the first signal; and wherein the means for recovering is further configured to convert the difference between the decoded frequency domain signal and the frequency domain signal to a time domain signal to recover the data in the first signal.
A hygienic powder composition comprising a lactic acid bacteria with probiotic properties and kaolin as absorbing and/or drying agent according for preventing diseases and enhancing the immune system of piglets, wherein the composition is dispersed at least once a day on the floor of the farrowing (parturition) area, wherein the composition is applied at the day of parturition and at least at the 2 following days and wherein the powder composition comprises by weight ratio 0.25% - 5% of a probiotic formulation containing at least one lactic acid bacteria and 40% - 70% kaolin.
A method for constructing a building with an elevator system , the method comprising: forming a first hoistway for the elevator system within two adjacent levels of the building ; installing a first stationary part of a first linear permanent magnet motor within the first hoistway ; placing a first elevator car within the first hoistway ; mounting a first moving part of the first linear permanent magnet motor on the first elevator car ; and using the first stationary part and the first moving part of the first linear permanent magnet motor to generate a vertical thrust force to move the first elevator car within the first hoistway , the first elevator car carrying at least one of passengers, equipment and materials for construction of upper levels of the elevator system and the building ; characterised by : forming a second hoistway for the elevator system next to the first hoistway ; installing a second stationary part of a second linear permanent magnet motor within the second hoistway ; placing a second elevator car within the second hoistway ; mounting a second moving part of the second linear permanent magnet motor on the second elevator car; and coupling the first and second elevator cars together such that they share an interior compartment . forming a first hoistway for the elevator system within two adjacent levels of the building ; installing a first stationary part of a first linear permanent magnet motor within the first hoistway ; placing a first elevator car within the first hoistway ; mounting a first moving part of the first linear permanent magnet motor on the first elevator car ; and using the first stationary part and the first moving part of the first linear permanent magnet motor to generate a vertical thrust force to move the first elevator car within the first hoistway , the first elevator car carrying at least one of passengers, equipment and materials for construction of upper levels of the elevator system and the building ; characterised by : forming a second hoistway for the elevator system next to the first hoistway ; installing a second stationary part of a second linear permanent magnet motor within the second hoistway ; placing a second elevator car within the second hoistway ; mounting a second moving part of the second linear permanent magnet motor on the second elevator car; and coupling the first and second elevator cars together such that they share an interior compartment .
A method performed by a base station in a wireless communication system, the method comprising: receiving, from a session management function, SMF, entity via an access and mobility management function, AMF, entity, a quality of service, QoS, profile for a QoS flow; identifying whether the QoS profile includes information indicating that a reflective QoS is applied to a traffic on the QoS flow; transmitting, to a terminal, a message for configuring a data radio bearer, DRB, associated with the QoS flow based on the identification, wherein the message notifies a DRB configuration omitting a header for transferring a QoS flow identifier, QFI, and a reflective QoS indication, RQI, for the DRB, in case that the QoS profile does not include the information indicating that the reflective QoS is applied to the traffic on the QoS flow; and transmitting, to the terminal, a downlink data on the DRB based on the message. receiving, from a session management function, SMF, entity via an access and mobility management function, AMF, entity, a quality of service, QoS, profile for a QoS flow; identifying whether the QoS profile includes information indicating that a reflective QoS is applied to a traffic on the QoS flow; transmitting, to a terminal, a message for configuring a data radio bearer, DRB, associated with the QoS flow based on the identification, wherein the message notifies a DRB configuration omitting a header for transferring a QoS flow identifier, QFI, and a reflective QoS indication, RQI, for the DRB, in case that the QoS profile does not include the information indicating that the reflective QoS is applied to the traffic on the QoS flow; and transmitting, to the terminal, a downlink data on the DRB based on the message.
Electric shaver comprising a handle , a shaver head including at least one cutter unit which includes a drivable cutter element and a shear foil , and a motor connected to said cutter element via a drive transmitter , wherein said shaver head is connected to said handle by means of a support structure providing for a swivel and/or tilting axis about which said shaver head may swivel or tilt relative to said handle , wherein said support structure includes a pair of link arms forming a four-joint linkage with each link arm having a head joint connected to a shaver head part and a handle joint connected to the handle or a base part connected thereto, wherein said link arms are mounted in a standing configuration with the head joints of the link arms further away from the handle than the handle joints of the link arms , characterized in that said motor is received in said handle on a side of the handle joints opposite to the shaver head, wherein said drive transmitter includes a drive shaft extending from said handle into said shaver head and passing said link arms , wherein the four joint linkage's pivot axes defined by the handle joints and the head joints extend transverse to said drive shaft on opposite sides thereof.
A computer-implemented method of detecting a fuel leak in an aircraft , the aircraft comprising a first engine and a second engine , the method comprising: upon determining that the aircraft has reached a first mode of operation: acquiring a first baseline fuel flow (Wfbase1) of the first engine , the first baseline fuel flow being determined as an average actual fuel flow of the first engine established over a period of time while operating in accordance with the first mode of operation; acquiring a second baseline fuel flow (Wfbase2) of the second engine , the second baseline fuel flow being determined as an average actual fuel flow of the second engine established over the period of time while operating in accordance with the first mode of operation; monitoring a first current fuel flow (Wf1) measured at the first engine and a second current fuel flow (Wf2) measured at the second engine ; and triggering a fuel leak detection based on an analysis of the first baseline fuel flow Wfbase1), the first current fuel flow (Wf1), the second baseline fuel flow (Wfbase2) and the second current fuel flow (Wf2); characterised in that the analysis of the first baseline fuel flow (Wfbase1), the first current fuel flow (Wf1), the second baseline fuel flow (Wfbase2) and the second current fuel flow (Wf2) comprises: calculating a first ratio (Wfratio1) based on the first current fuel flow (Wf1) and the first baseline fuel flow (Wfbase1); and calculating a second ratio (Wfratio2) based on the second current fuel flow (Wf2) and the second baseline fuel flow (Wfbase2). acquiring a first baseline fuel flow (Wfbase1) of the first engine , the first baseline fuel flow being determined as an average actual fuel flow of the first engine established over a period of time while operating in accordance with the first mode of operation; acquiring a second baseline fuel flow (Wfbase2) of the second engine , the second baseline fuel flow being determined as an average actual fuel flow of the second engine established over the period of time while operating in accordance with the first mode of operation; monitoring a first current fuel flow (Wf1) measured at the first engine and a second current fuel flow (Wf2) measured at the second engine ; and triggering a fuel leak detection based on an analysis of the first baseline fuel flow Wfbase1), the first current fuel flow (Wf1), the second baseline fuel flow (Wfbase2) and the second current fuel flow (Wf2); characterised in that the analysis of the first baseline fuel flow (Wfbase1), the first current fuel flow (Wf1), the second baseline fuel flow (Wfbase2) and the second current fuel flow (Wf2) comprises: calculating a first ratio (Wfratio1) based on the first current fuel flow (Wf1) and the first baseline fuel flow (Wfbase1); and calculating a second ratio (Wfratio2) based on the second current fuel flow (Wf2) and the second baseline fuel flow (Wfbase2). calculating a first ratio (Wfratio1) based on the first current fuel flow (Wf1) and the first baseline fuel flow (Wfbase1); and calculating a second ratio (Wfratio2) based on the second current fuel flow (Wf2) and the second baseline fuel flow (Wfbase2).
A blood pump casing , comprising: a unitary body defining: an inlet chamber extending along a first axis (L1) and having a first radius perpendicular to the first axis; a transition chamber connected to the inlet chamber and having a wall extending in a circumferential direction around the first axis, the wall having a major radius and a minor radius (R2) from the first axis, the major radius being greater than the first radius; a post extending from the transition chamber into the inlet chamber along the first axis, the post tapering in the direction around the first axis toward the inlet chamber; and an outlet connected to the transition chamber and extending along a second axis (L2) transverse to the first axis, the outlet including a first segment extending from a juncture of the outlet and the transition chamber, and a second segment extending from the first segment, wherein a cross-sectional area of the second segment is larger than a cross-sectional area of the first segment. an inlet chamber extending along a first axis (L1) and having a first radius perpendicular to the first axis; a transition chamber connected to the inlet chamber and having a wall extending in a circumferential direction around the first axis, the wall having a major radius and a minor radius (R2) from the first axis, the major radius being greater than the first radius; a post extending from the transition chamber into the inlet chamber along the first axis, the post tapering in the direction around the first axis toward the inlet chamber; and an outlet connected to the transition chamber and extending along a second axis (L2) transverse to the first axis, the outlet including a first segment extending from a juncture of the outlet and the transition chamber, and a second segment extending from the first segment, wherein a cross-sectional area of the second segment is larger than a cross-sectional area of the first segment.