mhurhangee/patent-ind-claim-en huggingface dataset:
Support structure for supporting a high voltage unit , the support structure comprising: - a plurality of post insulators for supporting the high voltage unit on a support surface ; and - at least one coupling device , wherein the coupling device comprises: - two support members ; - a joint connecting the two support members and allowing relative rotation between the support members about at least one rotational axis ; and - at least one damping element connecting the two support members in parallel with the joint ; wherein the at least one damping element is configured to deform plastically by a relative rotation between the support members about the at least one rotational axis ; and wherein at least one of the post insulators is connected to one of the at least one coupling device to damp rotation of the at least one of the post insulators about the at least one rotational axis . - a plurality of post insulators for supporting the high voltage unit on a support surface ; and - at least one coupling device , wherein the coupling device comprises: - two support members ; - a joint connecting the two support members and allowing relative rotation between the support members about at least one rotational axis ; and - at least one damping element connecting the two support members in parallel with the joint ;
Cooling circuit for an engine , comprising functional members, with in particular a first functional member of the engine being an oil cooler and a second functional member of the engine being a liquid coolant pump , the liquid coolant pump being arranged upstream of the engine in the direction of flow of the liquid coolant in the cooling circuit , the cooling circuit comprising in particular a unit heater , a radiator and also a plurality of ducts for passage of the liquid coolant between functional members, one of the ducts being a liquid coolant passage duct for a motor vehicle internal combustion engine , which connects the oil cooler to the liquid coolant pump , the duct comprising a tubular portion , said tubular portion having an upstream end intended to be connected to a first functional member of the engine , in particular the oil cooler , and a downstream end opposite the upstream end and intended to be connected to a second functional member of the engine , in particular the liquid coolant pump , the tubular portion comprising at least one receiving orifice capable of receiving at least one element for heating the liquid coolant, and said passage duct comprising a branch connected to the duct emanating from the unit heater .
A chopper assembly , comprising; a blade assembly disposed within a housing having a discharge port ; a discharge conduit mounted to the housing and in communication with the discharge port ; and characterized by a first beater and a second beater rotatably mounted within the discharge conduit , wherein the discharge conduit has a bottom wall with a first door positioned below the first beater and a second door positioned below the second beater , wherein the second door pivots upwardly between the first beater and the second beater . a blade assembly disposed within a housing having a discharge port ; a discharge conduit mounted to the housing and in communication with the discharge port ; and characterized by a first beater and a second beater rotatably mounted within the discharge conduit , wherein the discharge conduit has a bottom wall with a first door positioned below the first beater and a second door positioned below the second beater , wherein the second door pivots upwardly between the first beater and the second beater .
A method for a User Equipment, UE comprising: the UE is configured with a control resource set, CORESET, ; the UE receives a Downlink Control Information, DCI, on the CORESET, wherein an index is included in the DCI and the index indicates a time domain resource allocation pattern ; and the UE receives data in Orthogonal Frequency Division Multiplexing, OFDM, symbols determined according to the time domain resource allocation pattern, wherein the time domain resource allocation pattern indicates OFDM symbols allocated to a single data channel transmission, a range of the time domain resource allocation pattern starts from the first OFDM symbol of the CORESET or after an offset from the first OFDM symbol of the CORESET, and the range of the time domain resource allocation pattern may end across a slot boundary . the UE is configured with a control resource set, CORESET, ; the UE receives a Downlink Control Information, DCI, on the CORESET, wherein an index is included in the DCI and the index indicates a time domain resource allocation pattern ; and the UE receives data in Orthogonal Frequency Division Multiplexing, OFDM, symbols determined according to the time domain resource allocation pattern, wherein the time domain resource allocation pattern indicates OFDM symbols allocated to a single data channel transmission, a range of the time domain resource allocation pattern starts from the first OFDM symbol of the CORESET or after an offset from the first OFDM symbol of the CORESET, and the range of the time domain resource allocation pattern may end across a slot boundary .
A method for continuously evaluating the quality of a calibration of an analyte sensor after subcutaneous implementation into a user, the method including: receiving a data stream from an analyte sensor, including one or more sensor data points; receiving reference data from a reference analyte monitor, including two or more reference data points; providing at least two matched data pairs by matching reference analyte data to substantially time corresponding sensor data; forming a calibration set including the at least two matching data pairs; creating a conversion function based on the calibration set; receiving additional sensor data from the analyte sensor; converting sensor data into calibrated data using conversion function; and characterised by evaluating the quality of the calibration set by determining a statistical association of the matched data pairs in the calibration set used to create the conversion function using one of linear regression, non-linear regression, rank correlation, least mean square fit, mean absolute deviation, and mean absolute relative difference. receiving a data stream from an analyte sensor, including one or more sensor data points; receiving reference data from a reference analyte monitor, including two or more reference data points; providing at least two matched data pairs by matching reference analyte data to substantially time corresponding sensor data; forming a calibration set including the at least two matching data pairs; creating a conversion function based on the calibration set; receiving additional sensor data from the analyte sensor; converting sensor data into calibrated data using conversion function; and characterised by evaluating the quality of the calibration set by determining a statistical association of the matched data pairs in the calibration set used to create the conversion function using one of linear regression, non-linear regression, rank correlation, least mean square fit, mean absolute deviation, and mean absolute relative difference.
Control apparatus for driving a laser diode, comprising: - an output terminal (A100) for connecting the laser diode , - a regulation device with a terminal (A120) for generating an output voltage (AS), - a detector device configured to determine an actual level of a diode current (ID) of the laser diode as a regulation variable, said diode current flowing through the laser diode when the laser diode is connected depending on the output voltage (AS) and an operating state of the laser diode, when the regulation device provides the output voltage (AS) at the terminal (A120) and the laser diode is connected to the output terminal (A100), - a computer device for providing a control signal (S0) for the regulation device , wherein the computer device provides the control signal independently of the regulation variable and the control signal (S0) specifies a target level of the diode current of the laser diode, - wherein the regulation device is configured in such a way that it generates a level of the output voltage (AS) depending on the control signal (S0) and the determined regulation variable (ID), - wherein the detector device is arranged between the output terminal (A100) and the regulation device , - wherein the control apparatus is configured in such a way that the generation of the diode current is interrupted if the level of the diode current (ID) exceeds a threshold value. - an output terminal (A100) for connecting the laser diode , - a regulation device with a terminal (A120) for generating an output voltage (AS), - a detector device configured to determine an actual level of a diode current (ID) of the laser diode as a regulation variable, said diode current flowing through the laser diode when the laser diode is connected depending on the output voltage (AS) and an operating state of the laser diode, when the regulation device provides the output voltage (AS) at the terminal (A120) and the laser diode is connected to the output terminal (A100), - a computer device for providing a control signal (S0) for the regulation device , wherein the computer device provides the control signal independently of the regulation variable and the control signal (S0) specifies a target level of the diode current of the laser diode, - wherein the regulation device is configured in such a way that it generates a level of the output voltage (AS) depending on the control signal (S0) and the determined regulation variable (ID), - wherein the detector device is arranged between the output terminal (A100) and the regulation device , - wherein the control apparatus is configured in such a way that the generation of the diode current is interrupted if the level of the diode current (ID) exceeds a threshold value.
Octreotide for use in a method of treating acromegaly in a subject in whom prior treatment with a somatostatin receptor ligand has been shown to be effective and tolerated, wherein at least one dosage form comprising octreotide is administered orally to the subject twice daily, wherein the dosage form comprises an oily suspension which is formulated into a capsule, wherein the oily suspension comprises a hydrophobic medium and a solid form, the solid form comprising: the octreotide; at least one salt of a medium chain fatty acid having a chain length from 6 to 14 carbon atoms, wherein the medium chain fatty acid salt is present in the oily suspension at an amount of 11% to 40% by weight; and polyvinylpyrrolidone (PVP), wherein the PVP is present in the oily suspension at an amount of 2% to 20% by weight; wherein the octreotide in each dosage form is 20 mg, wherein the administering occurs at least 1 hour before a meal or at least 2 hours after a meal, to thereby treat the subject, and wherein the total amount of octreotide administered per day is 40 mg, 60 mg, or 80 mg. wherein the oily suspension comprises a hydrophobic medium and a solid form, the solid form comprising: the octreotide; at least one salt of a medium chain fatty acid having a chain length from 6 to 14 carbon atoms, wherein the medium chain fatty acid salt is present in the oily suspension at an amount of 11% to 40% by weight; and polyvinylpyrrolidone (PVP), wherein the PVP is present in the oily suspension at an amount of 2% to 20% by weight; the octreotide; at least one salt of a medium chain fatty acid having a chain length from 6 to 14 carbon atoms, wherein the medium chain fatty acid salt is present in the oily suspension at an amount of 11% to 40% by weight; and polyvinylpyrrolidone (PVP), wherein the PVP is present in the oily suspension at an amount of 2% to 20% by weight; wherein the octreotide in each dosage form is 20 mg, wherein the administering occurs at least 1 hour before a meal or at least 2 hours after a meal, to thereby treat the subject, and wherein the total amount of octreotide administered per day is 40 mg, 60 mg, or 80 mg.
A cartridge that is attachable to or detachable from a main body of an image forming apparatus, the main body including an opening and a door to open/close the opening, the cartridge comprising: a memory unit that includes a contact portion via which the cartridge is connected to the main body and is connected to the main body to transmit information of the cartridge to the main body , the contact portion being configured to movable to a first position where the contact portion is hidden in the cartridge and to a second position where the contact portion protrudes out of the cartridge in order to be connected to a connection portion provided in the main body ; characterised by comprising a protection member that is configured to prevent collision between the contact portion and the main body or the connection portion during a mounting operation of the cartridge and that is operable to be moved, as the contact portion is moved to the first or second position, to a retreat position that is hidden in the cartridge and a protruding position protruding out of the cartridge in order to be inserted into an insertion portion provided in the main body . a memory unit that includes a contact portion via which the cartridge is connected to the main body and is connected to the main body to transmit information of the cartridge to the main body , the contact portion being configured to movable to a first position where the contact portion is hidden in the cartridge and to a second position where the contact portion protrudes out of the cartridge in order to be connected to a connection portion provided in the main body ; characterised by comprising a protection member that is configured to prevent collision between the contact portion and the main body or the connection portion during a mounting operation of the cartridge and that is operable to be moved, as the contact portion is moved to the first or second position, to a retreat position that is hidden in the cartridge and a protruding position protruding out of the cartridge in order to be inserted into an insertion portion provided in the main body .
Device for monitoring patient's vital functions comprising a computing unit, a measuring electrode , a piezoelectric transducer , wherein the piezoelectric transducer comprises a first electrode and a second electrode and a piezoelectric element formed by piezoelectric material, wherein the piezoelectric element is positioned between the first electrode and the second electrode , wherein the measuring electrode forms, together with the first electrode or the second electrode of the piezoelectric transducer , a measuring capacitor , wherein the piezoelectric transducer and the measuring capacitor are electrically connected with the computing unit , wherein the measuring electrode is connected to a board, wherein the piezoelectric transducer is propped against the board, on which the measuring electrode is located, in at least two positions, wherein between the at least two positions is located a flexible portion of the piezoelectric transducer and wherein the computing unit is configured to combine piezoelectric voltage measurement and capacity measurement function
Agglomerated zeolitic adsorbent, comprising at least one faujasite zeolite with an Si/Al atomic ratio strictly of greater than 1.50, advantageously of between 1.50 and 6.50, limits excluded, preferably between 2.00 and 6.00, limits included, more preferably between 2.00 and 4.00, limits included, and more preferably still between 2.20 and 2.80, limits included, characterized, on the one hand, in that the grain porosity of said adsorbent is of between 25% and 45%, preferably between 30% and 45%, more preferably between 32% and 45% and very preferably between 35% and 45%, particularly advantageously between 36% and 45%, limits included, and, on the other hand, in that the standard deviation σ of the crystal size distribution in said agglomerate is less than 0.30 μm, preferably of between 0.05 μm and 0.30 μm, more preferably between 0.05 μm and 0.28 μm, and entirely preferably between 0.1 μm and 0.28 μm, particularly preferably between 0.1 μm and 0.25 μm, limits included, said adsorbent comprising zeolite crystals with a number-average diameter of between 100 nm and 1200 nm, limits included, and the fraction by weight of FAU zeolite in said adsorbent is greater than or equal to 80%, with respect to the total weight of adsorbent.
A fluid-based cooling element for cooling a heat generating element arranged on a printed circuit board (PCB) , wherein the fluid-based cooling element comprises: a fluid chamber for receiving a cooling fluid; and a movable body being in fluidic contact with the fluid chamber on an upper side of the movable body , wherein the movable body has a base portion having a first lower surface facing away from the fluid chamber ; characterized in that the first lower surface of the base portion of the movable body is configured to be in contact with the heat generating element arranged on the printed circuit board , wherein a deformable element (20a; 20b; 20c; 20d) is in contact with the movable body for movably supporting the movable body , such that the movable body is movable towards or away from the fluid chamber in a direction (P1, P2) perpendicular to an inner upper surface of the fluid chamber , such that the position of the first lower surface of the base portion of the movable body being in contact with the heat generating element arranged on the printed circuit board is adjustable in dependence on a variable height of the heat generating element arranged on the printed circuit board , and wherein the deformable element (20a; 20b; 20c; 20d) is made of a rubber material. a fluid chamber for receiving a cooling fluid; and a movable body being in fluidic contact with the fluid chamber on an upper side of the movable body , wherein the movable body has a base portion having a first lower surface facing away from the fluid chamber ; characterized in that the first lower surface of the base portion of the movable body is configured to be in contact with the heat generating element arranged on the printed circuit board , wherein a deformable element (20a; 20b; 20c; 20d) is in contact with the movable body for movably supporting the movable body , such that the movable body is movable towards or away from the fluid chamber in a direction (P1, P2) perpendicular to an inner upper surface of the fluid chamber , such that the position of the first lower surface of the base portion of the movable body being in contact with the heat generating element arranged on the printed circuit board is adjustable in dependence on a variable height of the heat generating element arranged on the printed circuit board , and wherein the deformable element (20a; 20b; 20c; 20d) is made of a rubber material.
A stage light having an unlockable brake motor, comprising a controlled component; and a braking motor that drives the controlled component to move, wherein the braking motor comprises a motor unit ; and a braking unit for braking the motor unit , and the braking motor being a power-off locking motor, the stage light further comprising a controller ; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit ;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller , and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component. a controlled component; and a braking motor that drives the controlled component to move, wherein the braking motor comprises a motor unit ; and a braking unit for braking the motor unit , and the braking motor being a power-off locking motor, the stage light further comprising a controller ; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit ;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller , and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component. a motor unit ; and a braking unit for braking the motor unit , and the braking motor being a power-off locking motor, the stage light further comprising a controller ; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit ;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller , and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component.
A glass-based article comprising: a first surface and a second surface opposing the first surface defining a thickness ( t ) in a range of 0.1 mm and 2 mm; and a stress profile extending along the thickness ( t ), wherein at least one point of the stress profile in a first thickness range from 0• t up to 0.020• t and greater than 0.98• t comprises a tangent with a slope of from -200 MPa/micrometer to -25 MPa/micrometer or 25 MPa/micrometer to 200 MPa/micrometer, wherein all points of the stress profile in a second thickness range from 0.035• t and less than 0.965• t comprise a tangent with a slope of from -15 MPa/micrometer to 15 MPa/micrometer, wherein the stress profile comprises a surface CS of from 200 MPa to 1100 MPa, and wherein the stress profile comprises a DOC ranging from 0.1• t to 0.25• t characterised in that the stress profile in the second thickness range forms a power-law profile having a power exponent, and in that the power exponent is between 1.2 to 3.2. a first surface and a second surface opposing the first surface defining a thickness ( t ) in a range of 0.1 mm and 2 mm; and a stress profile extending along the thickness ( t ), wherein at least one point of the stress profile in a first thickness range from 0• t up to 0.020• t and greater than 0.98• t comprises a tangent with a slope of from -200 MPa/micrometer to -25 MPa/micrometer or 25 MPa/micrometer to 200 MPa/micrometer, wherein all points of the stress profile in a second thickness range from 0.035• t and less than 0.965• t comprise a tangent with a slope of from -15 MPa/micrometer to 15 MPa/micrometer, wherein the stress profile comprises a surface CS of from 200 MPa to 1100 MPa, and wherein the stress profile comprises a DOC ranging from 0.1• t to 0.25• t characterised in that the stress profile in the second thickness range forms a power-law profile having a power exponent, and in that the power exponent is between 1.2 to 3.2.
A surfactant comprising a grafted rosin ester which is a rosin ester grafted with a capped polyalkylene glycol, wherein the capped polyalkylene glycol is a polyalkylene glycol end-capped by an alkyl ether.