mhurhangee/patent-ind-claim-en huggingface dataset:
A flat panel display comprising: a substrate (SUB) including a display area and a non-display area; a pull-up thin film transistor (Tpu2) including a first gate electrode (Gu), a first source electrode (Su) and a first drain electrode (Du), disposed in the non-display area; and a boosting capacitor (CQ2) connected between the first gate electrode (Gu) and the first source electrode (Su); wherein the boosting capacitor (CQ2) includes a light shielding layer (LS) connected to the first gate electrode (Gu) and overlapping with the first source electrode (Su), but not overlapping with the first drain electrode (Du). a substrate (SUB) including a display area and a non-display area; a pull-up thin film transistor (Tpu2) including a first gate electrode (Gu), a first source electrode (Su) and a first drain electrode (Du), disposed in the non-display area; and a boosting capacitor (CQ2) connected between the first gate electrode (Gu) and the first source electrode (Su); wherein the boosting capacitor (CQ2) includes a light shielding layer (LS) connected to the first gate electrode (Gu) and overlapping with the first source electrode (Su), but not overlapping with the first drain electrode (Du).
Bathroom for two cabins of a ship, said bathroom comprising three spaces and two separate entrances for access to said bathroom from said two cabins; characterized in that said three spaces comprise: - a first room and a second room ; and - a shower room accessible from said first room and said second room ; said shower room comprising a movable wall , said movable wall being movable between two positions: - a first position wherein said movable wall creates a separation wall between said first room and said shower room , and allows access to the shower room from said second room ; and - a second position in which said movable wall creates a separation wall between said second room and said shower room , and allows access to the shower room from said first room . - a first room and a second room ; and - a shower room accessible from said first room and said second room ; - a first position wherein said movable wall creates a separation wall between said first room and said shower room , and allows access to the shower room from said second room ; and - a second position in which said movable wall creates a separation wall between said second room and said shower room , and allows access to the shower room from said first room .
A transformer for a modular converter comprising a) a core ; b) a first coil , said first coil comprising i) a first winding , in particular a high-voltage winding, surrounding a first section of the core, ii) an encapsulation made from solid, electrically insulating material and enclosing said first winding; c) a second winding , in particular a low-voltage winding, surrounding the first or a second section of the core; d) an electrically conductive coating formed on at least a portion of an outer surface of the encapsulation, characterized in that e) a voltage divider is provided in electrical connection with the first winding and the electrically conductive coating , said voltage divider being configured to set an absolute value of an electric potential | V coat | at the conductive coating to below an absolute value of an electric potential | V winding | at the first winding, i.e. | V coat | < | V winding |, and in that the voltage divider is a resistive voltage divider comprising f) a first resistance ( R 1 ) provided between the first winding and the electrically conductive coating , and g) a second resistance ( R 2 ) provided between the electrically conductive coating and a reference connection, preferably a ground connection. a) a core ; b) a first coil , said first coil comprising i) a first winding , in particular a high-voltage winding, surrounding a first section of the core, ii) an encapsulation made from solid, electrically insulating material and enclosing said first winding; i) a first winding , in particular a high-voltage winding, surrounding a first section of the core, ii) an encapsulation made from solid, electrically insulating material and enclosing said first winding; c) a second winding , in particular a low-voltage winding, surrounding the first or a second section of the core; d) an electrically conductive coating formed on at least a portion of an outer surface of the encapsulation, characterized in that e) a voltage divider is provided in electrical connection with the first winding and the electrically conductive coating , said voltage divider being configured to set an absolute value of an electric potential | V coat | at the conductive coating to below an absolute value of an electric potential | V winding | at the first winding, i.e. | V coat | < | V winding |, and in that the voltage divider is a resistive voltage divider comprising f) a first resistance ( R 1 ) provided between the first winding and the electrically conductive coating , and g) a second resistance ( R 2 ) provided between the electrically conductive coating and a reference connection, preferably a ground connection.
Stator for an electric motor, wherein the stator has a plurality of lines for supplying electricity to coil windings of the stator; and a plurality of electrical connections (21; 62), wherein these lines are at least partially formed in a stator body ; and the stator body has bores (50; 51) which penetrate into or through the lines and are at least partially filled with conductive agents (60; 62), wherein these conductive agents electrically connect the lines and the connections. these lines are at least partially formed in a stator body ; and the stator body has bores (50; 51) which penetrate into or through the lines and are at least partially filled with conductive agents (60; 62), wherein these conductive agents electrically connect the lines and the connections.
A method of determining a lifetime parameter of a capacitor in a failsafe device, the method comprising: - measuring an amount of energy required to return the failsafe device to a failsafe position; characterised by : - determining an effective capacitance of the capacitor using a measured value associated with energy used by a resistor or a motor of the failsafe device and a constant value representing energy of remaining components of the failsafe device; and - comparing the amount of energy to the effective capacitance to determine a lifetime parameter of the capacitor . - measuring an amount of energy required to return the failsafe device to a failsafe position; characterised by : - determining an effective capacitance of the capacitor using a measured value associated with energy used by a resistor or a motor of the failsafe device and a constant value representing energy of remaining components of the failsafe device; and - comparing the amount of energy to the effective capacitance to determine a lifetime parameter of the capacitor .
A method for determining a set of optimal operating parameters O for a pumping plant that is configured to pump a fluid medium by a set of multiple pumps (3a-3c) connected in parallel, the method comprising: • determining , from the set of pumps (3a-3c), a set of K possible scenarios S1-K, wherein each scenario indicates, for each pump (3a-3c) in the set , whether the pump (3a-3c) is running or not running; • optimizing , for each scenario S1-K, a set of operating parameters O comprising operating parameters (4a-4c) of the pumps (3a-3c) that are running according to this scenario S1-K, wherein the goal of the optimization is that all running pumps (3a-3c) together bring a given input mass flow M in of the medium from a given input pressure p in to a given output pressure p out while minimizing the total power consumption P of all running pumps (3a-3c), and assigning the found minimum power consumption P min,S1-K and the corresponding optimal operating parameters O opt,S1-K to the scenario S1-K; • determining , from the set of scenarios S1-K, the scenario S* with the lowest power consumption P min,S* ; and • determining the sought optimal operating parameters O to be: running the pumps (3a-3c) that are to be run according to the scenario S* at the operating parameters O opt,S* found for the scenario S*, and not running the pumps (3a-3c) that are not to be run according to the scenario S*, characterized in that the operating parameters O further comprise a set point for a throttling valve that is connected in the plant downstream of the set of pumps (3a-3c). • determining , from the set of pumps (3a-3c), a set of K possible scenarios S1-K, wherein each scenario indicates, for each pump (3a-3c) in the set , whether the pump (3a-3c) is running or not running; • optimizing , for each scenario S1-K, a set of operating parameters O comprising operating parameters (4a-4c) of the pumps (3a-3c) that are running according to this scenario S1-K, wherein the goal of the optimization is that all running pumps (3a-3c) together bring a given input mass flow M in of the medium from a given input pressure p in to a given output pressure p out while minimizing the total power consumption P of all running pumps (3a-3c), and assigning the found minimum power consumption P min,S1-K and the corresponding optimal operating parameters O opt,S1-K to the scenario S1-K; • determining , from the set of scenarios S1-K, the scenario S* with the lowest power consumption P min,S* ; and • determining the sought optimal operating parameters O to be: running the pumps (3a-3c) that are to be run according to the scenario S* at the operating parameters O opt,S* found for the scenario S*, and not running the pumps (3a-3c) that are not to be run according to the scenario S*,
A method of preparing a composition, comprising the compound S p -1 in an amount of at least about 95% by weight wherein the method comprises reacting a compound 61501c with a compound 61501b to produce a compound 61501a: wherein R is H or a hydroxyl protecting group; L is halogen, aryloxide, benzenesulfonate group, camphorsulfonate group, or aryloxide substituted with at least one electron withdrawing group; optionally, when R is not H, the hydroxyl protecting group of the compound 61501a is deprotected to give the compound S p -1. wherein R is H or a hydroxyl protecting group; L is halogen, aryloxide, benzenesulfonate group, camphorsulfonate group, or aryloxide substituted with at least one electron withdrawing group; optionally, when R is not H, the hydroxyl protecting group of the compound 61501a is deprotected to give the compound S p -1.
A vibrating device for a horse-riding mouthpiece; the vibrating device being integrable/applicable in/to said mouthpiece and being configured to be placed in the mouth of a horse , said vibrating device comprising an elongated element being configured to be placed in the mouth of a horse and at least one vibrating means , which is carried by the elongated element and is configured to operate a vibration of the elongated element , said vibrating device being characterized in that the elongated element is tubular in shape and is configured to be placed transversely in the mouth of the horse above the tongue of the horse ; the at least one vibrating means being placed inside the elongated element .
Steel, characterised in that its composition, in percentages by weight is as follows: - 10.0% ≤ Ni ≤ 24.5%; - 1.0% ≤ Mo ≤ 12.0%; - 1.0% ≤ Co ≤ 25.0%; - 20.0% ≤ Mo + Co + Si + Mn + Cu + W + V + Nb + Zr + Ta + Cr + C ≤ 29.0%; - Co + Mo ≥ 20.0%;; - Ni + Co + Mo ≥ 29%; - traces ≤ Al ≤ 4.0%; - traces ≤ Ti ≤ 0.1%; - traces ≤ N ≤ 0.0050%; - 0.04% ≤ Si ≤ 2.0%; - traces ≤ Mn ≤ 4.0%; - traces ≤ C ≤ 0.03%; - traces ≤ S ≤ 0.0020%; - traces ≤ P ≤ 0.005%; - traces ≤ B ≤ 0.01%; - traces ≤ H ≤ 0.0005%; - traces ≤ O ≤ 0.0025%; - traces ≤ Cu ≤ 2.0%; - traces ≤ W ≤ 4.0%; - traces ≤ Zr ≤ 4.0%; - traces ≤ Ca ≤ 0.1%; - traces ≤ Mg ≤ 0.1%; - traces ≤ Nb ≤ 4.0%; - traces ≤ V ≤ 4.0%; - traces ≤ Ta ≤ 4.0%; with the remainder being iron and impurities resulting from the smelting and manufacturing process, Cr being present only in trace amounts resulting from the smelting and manufacturing process; and in that the inclusion population, as observed by means of image analysis over a polished surface measuring 650 mm 2 if the steel is in the form of a component part/work piece that is hot-formed or a hot-rolled sheet; and measuring 800 mm 2 if the steel is in the form of a cold-rolled sheet, does not contain non-metallic inclusions having equivalent diameter greater than 10 μm, and, in the case of a hot-rolled sheet, does not contain more than four non-metallic inclusions having equivalent diameter of 5 μm to 10 μm over 100 mm 2 , the observation being performed by means of image analysis over a polished surface measuring 650 mm 2 , the non-metallic inclusions being oxides, sulfides and nitrides. - 10.0% ≤ Ni ≤ 24.5%; - 1.0% ≤ Mo ≤ 12.0%; - 1.0% ≤ Co ≤ 25.0%; - 20.0% ≤ Mo + Co + Si + Mn + Cu + W + V + Nb + Zr + Ta + Cr + C ≤ 29.0%; - Co + Mo ≥ 20.0%;; - Ni + Co + Mo ≥ 29%; - traces ≤ Al ≤ 4.0%; - traces ≤ Ti ≤ 0.1%; - traces ≤ N ≤ 0.0050%; - 0.04% ≤ Si ≤ 2.0%; - traces ≤ Mn ≤ 4.0%; - traces ≤ C ≤ 0.03%; - traces ≤ S ≤ 0.0020%; - traces ≤ P ≤ 0.005%; - traces ≤ B ≤ 0.01%; - traces ≤ H ≤ 0.0005%; - traces ≤ O ≤ 0.0025%; - traces ≤ Cu ≤ 2.0%; - traces ≤ W ≤ 4.0%; - traces ≤ Zr ≤ 4.0%; - traces ≤ Ca ≤ 0.1%; - traces ≤ Mg ≤ 0.1%; - traces ≤ Nb ≤ 4.0%; - traces ≤ V ≤ 4.0%; - traces ≤ Ta ≤ 4.0%; with the remainder being iron and impurities resulting from the smelting and manufacturing process, Cr being present only in trace amounts resulting from the smelting and manufacturing process; and in that the inclusion population, as observed by means of image analysis over a polished surface measuring 650 mm 2 if the steel is in the form of a component part/work piece that is hot-formed or a hot-rolled sheet; and measuring 800 mm 2 if the steel is in the form of a cold-rolled sheet, does not contain non-metallic inclusions having equivalent diameter greater than 10 μm, and, in the case of a hot-rolled sheet, does not contain more than four non-metallic inclusions having equivalent diameter of 5 μm to 10 μm over 100 mm 2 , the observation being performed by means of image analysis over a polished surface measuring 650 mm 2 , the non-metallic inclusions being oxides, sulfides and nitrides.
Arrangement for influencing the position of an agricultural attachment, having a three-point hydraulic lift which has a central top link and right-hand and left-hand lower links , with actuator means for the longitudinal adjustment of the top link and for the common and/or side-specific changing of the lift positions of the two lower links , with a control unit which actuates the actuator means to carry out a position correction of an agricultural attachment which can be attached to the three-point hydraulic lift , and having a sensor arrangement which is composed of one or more ultrasonic or radar sensors and has the purpose of carrying out a distance measurement, the sensing range of which points essentially perpendicularly with respect to the surface of the earth, wherein the control unit carries out the positional correction in accordance with an actual value ( A act) determined from the distance measurement, of a distance variable which represents a spatial distance between a reference point , provided on the agricultural attachment , with respect to an associated section of the surface of the earth, and a setpoint value ( A setp ) which is specified for the distance variable, characterized in that the control unit derives the setpoint value ( A setp ) from a working height (d) and/or inclination (α, β), to be maintained along a contour of the surface of the earth which is to be travelled along, of the agricultural attachment , wherein the control unit determines the working height (d) and/or inclination (α, β), to be maintained, of the agricultural attachment by determining the current geolocation of the reference point and subsequent referencing with geo-information which is stored for the respective geolocation, wherein the provision of the current geolocation as well as of the geo-information which is stored for it is carried out by a satellite-based navigation system which is connected to the control unit wherein the control unit actuates the actuator means to approximate the actual value ( A act ) to the setpoint value ( A setp ) of the distance variable.
An article comprising: a bag assembly capable of withstanding sterilization by gamma irradiation of at least 50 kGy up to about 1000 kGy, the bag assembly including: a bag portion having first and second walls, wherein each of the first and second walls comprise a single sheet of a fluoropolymer film comprising an ethylenetetrafluoroethylene polymer; and a fitment including first and second sidewalls extending between opposing end points, wherein a portion of each of the first and second walls of the bag portion are attached to each other along at least a portion of a perimeter of the bag assembly up to the opposing end points of the fitment defining an interior of the bag portion, and wherein each of the first and second walls are bonded individually to one of the first and second sidewalls of the fitment, and at least one fitting extending from the fitment, wherein the at least one fitting is in communication through the fitment to the interior of the bag portion. a bag portion having first and second walls, wherein each of the first and second walls comprise a single sheet of a fluoropolymer film comprising an ethylenetetrafluoroethylene polymer; and a fitment including first and second sidewalls extending between opposing end points, wherein a portion of each of the first and second walls of the bag portion are attached to each other along at least a portion of a perimeter of the bag assembly up to the opposing end points of the fitment defining an interior of the bag portion, and wherein each of the first and second walls are bonded individually to one of the first and second sidewalls of the fitment, and at least one fitting extending from the fitment, wherein the at least one fitting is in communication through the fitment to the interior of the bag portion.
A method comprising: obtaining a first clean signal (S 1 ) and a first processed signal (S 4 ) dependent upon audio input at a first microphone ; obtaining a second clean signal (S 2 ) and a second processed signal (S 3 ) dependent upon audio input at a second microphone ; grouping the obtained signals into at least two groups, the first group comprising the signals dependent upon audio input at the first microphone and the second group comprising the signals dependent upon audio input at the second microphone; discriminating clean signals and processed signals in the groups of signals; using the clean signals (S 1 , S 2 ) to obtain a time offset between audio signals captured by the microphones ; and using the time offset to enable further processing of at least the first processed signal (S 4 ) and the second processed signal (S 3 ), wherein the processed signals comprise at least one characteristic, that is an artefact of the processing used to produce the processed signals, used to discriminate the clean signals from the processed signals. obtaining a first clean signal (S 1 ) and a first processed signal (S 4 ) dependent upon audio input at a first microphone ; obtaining a second clean signal (S 2 ) and a second processed signal (S 3 ) dependent upon audio input at a second microphone ; grouping the obtained signals into at least two groups, the first group comprising the signals dependent upon audio input at the first microphone and the second group comprising the signals dependent upon audio input at the second microphone; discriminating clean signals and processed signals in the groups of signals; using the clean signals (S 1 , S 2 ) to obtain a time offset between audio signals captured by the microphones ; and using the time offset to enable further processing of at least the first processed signal (S 4 ) and the second processed signal (S 3 ), wherein the processed signals comprise at least one characteristic, that is an artefact of the processing used to produce the processed signals, used to discriminate the clean signals from the processed signals.
Method for operating an application program (SP) for execution on an electrical control unit for a drive system , comprising the step of: - managing at least one application parameter (AP) by means of an application parameter manager (APV), characterized - in that the application program (SP) runs on a firmware (FW) on the electrical control unit , and - in that the application parameter (AP) is a parameter of the application program (SP), - wherein the application parameter manager (APV) is added to the application program (SP), and - wherein the application parameter manager (APV) is not added to the firmware (FW) on the electrical control unit , and - wherein the method has the step of: - managing at least one device parameter (GP) by means of a device parameter manager (GPV), wherein the device parameter manager (GPV) is added to the firmware (FW) on the electrical control unit . - managing at least one application parameter (AP) by means of an application parameter manager (APV), characterized - in that the application program (SP) runs on a firmware (FW) on the electrical control unit , and - in that the application parameter (AP) is a parameter of the application program (SP), - wherein the application parameter manager (APV) is added to the application program (SP), and - wherein the application parameter manager (APV) is not added to the firmware (FW) on the electrical control unit , and - wherein the method has the step of: - managing at least one device parameter (GP) by means of a device parameter manager (GPV), wherein the device parameter manager (GPV) is added to the firmware (FW) on the electrical control unit .
A method comprising: monitoring, at a processor of a mobile device , a stream of magnetic field measurements generated by a first sensor of the mobile device as the mobile device is manipulated by a user, each magnetic field measurement representing an orientation of the mobile device relative to a reference frame; for each magnetic field measurement of a set of magnetic field measurements of the stream, determining, at the processor , a point on a surface of a magnetometer calibration sphere associated with the orientation of the mobile device represented by that magnetic field measurement, and storing the magnetic field measurement to a corresponding data bin of a plurality of data bins (108; 504), each data bin of the plurality associated with a corresponding point on the surface of the magnetometer calibration sphere ; and responsive to determining that a number of data bins (108; 504) containing magnetic field measurements exceeds a specified threshold, triggering, by the processor , a magnetometer calibration process for a magnetometer of the mobile device . monitoring, at a processor of a mobile device , a stream of magnetic field measurements generated by a first sensor of the mobile device as the mobile device is manipulated by a user, each magnetic field measurement representing an orientation of the mobile device relative to a reference frame; for each magnetic field measurement of a set of magnetic field measurements of the stream, determining, at the processor , a point on a surface of a magnetometer calibration sphere associated with the orientation of the mobile device represented by that magnetic field measurement, and storing the magnetic field measurement to a corresponding data bin of a plurality of data bins (108; 504), each data bin of the plurality associated with a corresponding point on the surface of the magnetometer calibration sphere ; and responsive to determining that a number of data bins (108; 504) containing magnetic field measurements exceeds a specified threshold, triggering, by the processor , a magnetometer calibration process for a magnetometer of the mobile device .