mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of assessing the likelihood of response to cardiac resynchronization therapy (CRT) for a patient, the method comprising: receiving, by a processing unit , time-domain ECG data obtained from the patient; analyzing, by the processing unit , the time-domain ECG data to detect abnormal QRS peaks using a sliding window; determining, by the processing unit , a QRS peak (QRSp) score by quantifying the abnormal QRS peaks in the sliding window of the time-domain ECG data; determining, by the processing unit , a measure of likelihood of CRT response for the patient based on the QRSp score; and providing, using an output interface, an indication that the patient is a candidate for CRT based on the measure of likelihood of CRT response. receiving, by a processing unit , time-domain ECG data obtained from the patient; analyzing, by the processing unit , the time-domain ECG data to detect abnormal QRS peaks using a sliding window; determining, by the processing unit , a QRS peak (QRSp) score by quantifying the abnormal QRS peaks in the sliding window of the time-domain ECG data; determining, by the processing unit , a measure of likelihood of CRT response for the patient based on the QRSp score; and providing, using an output interface, an indication that the patient is a candidate for CRT based on the measure of likelihood of CRT response.
A security device that comprises - an elongated substrate having a long axis and a short axis; - a planar array of micro-sized stitched icons positioned on or within a surface of the substrate, each stitched icon comprising slices from two or more icon designs, wherein each slice is spaced slightly apart from, abuts, or slightly overlaps an adjacent slice(s), the stitched icons are arranged in a plurality of mutually perpendicular columns and rows, wherein the icon designs or portions thereof embodied in the slices that make up each stitched icon change or transition either down each column or across each row; and - a corresponding planar array of microlenses disposed substantially parallel to the planar array of stitched icons with focal points of at least some of the microlenses being substantially aligned with slices in the stitched icons , wherein the distance between the planar arrays is sufficient for the microlenses to form one or more synthetically magnified images of the transitioning icon designs, and wherein the synthetically magnified images smoothly transition from one form to at least one other form and then, optionally, back to the original form, as the device is tilted along its horizontal axis or as the device is tilted along its vertical axis. - an elongated substrate having a long axis and a short axis; - a planar array of micro-sized stitched icons positioned on or within a surface of the substrate, each stitched icon comprising slices from two or more icon designs, wherein each slice is spaced slightly apart from, abuts, or slightly overlaps an adjacent slice(s), the stitched icons are arranged in a plurality of mutually perpendicular columns and rows, wherein the icon designs or portions thereof embodied in the slices that make up each stitched icon change or transition either down each column or across each row; and - a corresponding planar array of microlenses disposed substantially parallel to the planar array of stitched icons with focal points of at least some of the microlenses being substantially aligned with slices in the stitched icons , wherein the distance between the planar arrays is sufficient for the microlenses to form one or more synthetically magnified images of the transitioning icon designs, and wherein the synthetically magnified images smoothly transition from one form to at least one other form and then, optionally, back to the original form, as the device is tilted along its horizontal axis or as the device is tilted along its vertical axis.
Arrangement of a spark plug in a cylinder head of a cylinder of an internal combustion engine for a vehicle , the cylinder comprising exactly two inlet channels and the spark plug which is arranged in the cylinder and has a ground electrode having an open end , the cylinder comprising an assembly hole having an internal thread for receiving the spark plug and the spark plug comprising an external thread, the spark plug being fastened in the cylinder head of the cylinder such that the spark plug has an orientation in a predetermined orientation range with respect to the exactly two inlet channels in order to cool the ground electrode by means of a generated air flow of at least one of the inlet channels during operation of the internal combustion engine , the spark plug being mounted in the cylinder head of the cylinder such that the spark plug is attached symmetrically in the center of the exactly two inlet channels , the open end of the ground electrode being aligned between the two inlet channels at a point, the open end of the ground electrode being directed between the two inlet channels with a tolerance in a range of ±90° to ±5° with respect to the optimal alignment taking into account tolerances during assembly and being twisted about the longitudinal central axis of the spark plug so that the air streams flowing in via the inlet channels hit the open end of the ground electrode and thereby cool said electrode, the point which is on a straight line between the two inlet channels being defined between the two inlet channels , which straight line connects the center of an outlet of one inlet channel into the combustion chamber with the center of the outlet of the other inlet channel into the combustion chamber, the point having the same distance from the center of the outlet of one inlet channel as from the center of the outlet of the other inlet channel, the internal thread and the external thread of the spark plug being matched to one another such that, after assembly when the spark plug is screwed into the internal thread at a predetermined torque, the open end of the spark plug is aligned with respect to the two inlet channels with the tolerance between the inlet channels , characterized in that a spark plug collar of a spark plug metal housing is extended on the combustion chamber side such that the spark plug collar terminates at least with a spark plug ceramic or even projects slightly beyond the spark plug ceramic so that the spark plug ceramic is shielded as an insulator in the spark plug metal housing.
A coating material spray gun , comprising a handle that is manually gripped with one hand by an operator during a coating operation, a trigger mounted on said handle that can be actuated by said one hand to start and stop a coating operation, a manually actuated device mounted on said handle that has a first actuated position and a second actuated position, wherein the manually actuated device is a second trigger , wherein the second trigger has a neutral position and can be moved between said neutral position and said first and second actuated positions to make adjustments or selections or changes to one or more coating operation parameters, and wherein the second trigger includes a finger engageable lever that extends from a central hub , characterized in that wherein the hub includes a device that urges the second trigger to the neutral position.
Home care formulation comprising a delivery system for the release of one or more active agent(s), wherein the delivery system comprises a carrier material and one or more active agent(s) which is loaded on the carrier material, and wherein the carrier material consists of magnesium carbonate having a specific surface area of ≥ 25 m 2 /g, measured using nitrogen and the BET method according to ISO 9277:2010. wherein the delivery system comprises a carrier material and one or more active agent(s) which is loaded on the carrier material, and wherein the carrier material consists of magnesium carbonate having a specific surface area of ≥ 25 m 2 /g, measured using nitrogen and the BET method according to ISO 9277:2010.
A fusion protein comprising a main protein and one or more extension peptides, wherein the amino acid sequence of the main protein is identical or similar to the amino acid sequence of a mammalian protein or a fragment thereof, and said extension peptide(s) with a length of not more than 100 amino acids comprise(s) a cluster of O-glycosylated amino acids with at least two O-glycosylated amino acids and has/have a sequence identity of at least 90 % to SEQ ID NO: 1, and wherein the fusion protein has an increased half-life compared to the main protein without extension peptide(s).
A method of controlling a motor of an electric projectile propulsion device with a motor controller comprising a microcontroller and a trigger sensor connected thereto adapted to start the motor in response to a displacement of a trigger , wherein the motor controller comprises a magnetic element coupled to the trigger, and the trigger sensor is a magnetic field sensor, characterized in that the magnetic field sensor has at least two non-parallel measurement axes (x,y,z) configured to sense a position of the magnetic element along the at least two axes (x,y,z), and the position (r) of the trigger is determined on the basis of a measurement carried out along these at least two axes and a comparison of the measurement readout (p cx , p cy , p cz ) with reference data stored in memory of the microcontroller which contains vectors of reference measurement values for at least two axes (p cx (r), p cy (r), p cz (r)) unique for admissible trigger positions (r), and a shot is fired when a predefined condition is met.
A wind turbine facility (WTG) adapted to deliver electrical energy to an associated power supply grid, the wind turbine facility comprising - generator (GEN) means for converting mechanical energy to electrical energy, the generator means being mechanically coupled to a set of rotor blades optionally via a gearing arrangement (GEAR), - an electric power converter electrically coupled to the generator means and the associated power supply grid optionally via a grid transformer, - power dissipation/storage means being adapted to dissipate or store an amount of electrical energy from the generator means, and - control means (WTG / Conv CTRL) for determining an allowed amount of electrical energy that can be dissipated or stored in the power dissipation/storage means wherein the control means is adapted to operate the wind turbine facility in such a manner that a total amount of electrical energy generated by the wind turbine facility, in the event of a grid fault, does not exceed a sum of the allowed amount and an amount to be delivered to the power supply grid. - generator (GEN) means for converting mechanical energy to electrical energy, the generator means being mechanically coupled to a set of rotor blades optionally via a gearing arrangement (GEAR), - an electric power converter electrically coupled to the generator means and the associated power supply grid optionally via a grid transformer, - power dissipation/storage means being adapted to dissipate or store an amount of electrical energy from the generator means, and - control means (WTG / Conv CTRL) for determining an allowed amount of electrical energy that can be dissipated or stored in the power dissipation/storage means
A blood component separator for use in centrifugal separation of blood, comprising: a blood storage vessel including a first storage part and a second storage part ; a slider movable from the first storage part to the second storage part ; and a flow path for communicating an inside and an outside of the storage vessel , wherein when the slider is in the first storage part , the first storage part and the second storage part are in communication with each other, and when the slider is inserted into the second storage part , a liquid-tight seal is formed between the slider and an inner peripheral surface of the second storage part and the communication between the first storage part and the second storage part is blocked by the slider , characterized in that : the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part , a blood component in the second storage part is pushed out of the storage vessel through the flow path . a blood storage vessel including a first storage part and a second storage part ; a slider movable from the first storage part to the second storage part ; and a flow path for communicating an inside and an outside of the storage vessel , wherein when the slider is in the first storage part , the first storage part and the second storage part are in communication with each other, and when the slider is inserted into the second storage part , a liquid-tight seal is formed between the slider and an inner peripheral surface of the second storage part and the communication between the first storage part and the second storage part is blocked by the slider , characterized in that : the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part , a blood component in the second storage part is pushed out of the storage vessel through the flow path . the slider is movable in the second storage part while maintaining the liquid-tight seal between the slider and the inner peripheral surface of the second storage part, and as the slider enters into the second storage part , a blood component in the second storage part is pushed out of the storage vessel through the flow path .
Driver device for generating a load current (I LOAD1 , I LOAD2 ) for at least one load, the driver device comprising an isolation barrier for electrically isolating a primary circuit and a secondary circuit of the driver device, the secondary circuit comprises at least a first load terminal (LED1+) and a second load terminal (LED2+), and the secondary circuit comprising a filter circuit (11,11', 11") connected with one load terminal of the first load terminal (LED1+) and the second load terminal (LED2+), the filter circuit (11,11', 11") is configured to provide a signal (U IND ) that is generated based on the load current (I LOAD1 , I LOAD2 ) output via the connected load terminal (LED2+), wherein the filter circuit (11, 11', 11") includes an inductor, and the driver device comprises an evaluation circuit , and the driver device is characterized in that the inductor comprises a main winding (L1, L2, L3) and an auxiliary winding (L1AUX, L2AUX, L3AUX) configured to provide a signal induced by a current through the main winding (L1, L2, L3) of the inductor, and the main winding (L3) is configured to go into saturation in case the load current (I LOAD ) flows through the main winding (L3) of the inductor, and the evaluation circuit is configured to determine that the current (I LOAD1 , I LOAD2 ) is output via the connected load terminal (LED2+) in case of sensing no signal provided by the auxiliary winding (L3 AUX ). an isolation barrier for electrically isolating a primary circuit and a secondary circuit of the driver device, the secondary circuit comprises at least a first load terminal (LED1+) and a second load terminal (LED2+), and the secondary circuit comprising a filter circuit (11,11', 11") connected with one load terminal of the first load terminal (LED1+) and the second load terminal (LED2+), the filter circuit (11,11', 11") is configured to provide a signal (U IND ) that is generated based on the load current (I LOAD1 , I LOAD2 ) output via the connected load terminal (LED2+), wherein the filter circuit (11, 11', 11") includes an inductor, and the driver device comprises an evaluation circuit , and the driver device is characterized in that the inductor comprises a main winding (L1, L2, L3) and an auxiliary winding (L1AUX, L2AUX, L3AUX) configured to provide a signal induced by a current through the main winding (L1, L2, L3) of the inductor, and the main winding (L3) is configured to go into saturation in case the load current (I LOAD ) flows through the main winding (L3) of the inductor, and the evaluation circuit is configured to determine that the current (I LOAD1 , I LOAD2 ) is output via the connected load terminal (LED2+) in case of sensing no signal provided by the auxiliary winding (L3 AUX ).
An arc management system with a passive arc fault attenuator, comprising: a) electrical equipment having exposed electrical conductors possibly causing arcs; b) a cabinet separating the electrical equipment from an outside environment; c) a flue chamber within the cabinet and surrounding the electrical conductors, characterized in that the flue chamber being configured to contain an arc therein, the flue chamber having a flue channel formed therein, the flue channel being configured to lengthen the arc therein thereby attenuating the arc, wherein the flue channel is provided around the arc site. a) electrical equipment having exposed electrical conductors possibly causing arcs; b) a cabinet separating the electrical equipment from an outside environment; c) a flue chamber within the cabinet and surrounding the electrical conductors, characterized in that the flue chamber being configured to contain an arc therein, the flue chamber having a flue channel formed therein, the flue channel being configured to lengthen the arc therein thereby attenuating the arc, wherein the flue channel is provided around the arc site.
Method for the manufacture of a polymeric prodrug in the form of a hydrogel-drug conjugate comprising the hydrogel, the drug and a reversible prodrug linker, wherein the hydrogel is crosslinked, with a pore size of a substantial fraction of pores of larger than 1 nm and smaller than 100 nm in the hydrated state, wherein the average size of the pore of the hydrogel is larger than the diameter of the drug, wherein the hydrogel is a shaped article in the form of microparticulate soft beads which have a diameter of between 1 and 500 μm and wherein the hydrogel comprises bio-degradable bonds selected from the group of chemically-cleavable bonds consisting of phosphate, phosphonate, carbonate, carbamate, disulfide and ester bonds, wherein the linkage between the prodrug linker and the drug is reversible and wherein after cleavage of the linker, the drug is released in an unmodified form and wherein the drug is an organic small bioactive agent, the method comprising - a first step of synthesizing the hydrogel; followed by - a step of covalently connecting the reversible prodrug linker to the hydrogel; and - a step of covalently conjugating the drug to the reversible prodrug linker; wherein the last steps can be carried out in either order. - a first step of synthesizing the hydrogel; followed by - a step of covalently connecting the reversible prodrug linker to the hydrogel; and - a step of covalently conjugating the drug to the reversible prodrug linker;
A tungsten carbide powder satisfying such a condition that when the Fsss particle size thereof is represented by a (μm) and the BET particle size thereof converted from the BET specific surface area is represented by b (μm), a is 0.40 μm or more and 1.50 μm or less, and b/a is 0.17 or more and 0.35 or less, and the tapped volume (cm 3 /100g) is represented by y, wherein y is equal to or less than 22.56 - 5.97a, and wherein, when the tungsten carbide powder is pressed at a pressure of 98 MPa and molded into a press-molded body, the density (g/cm 3 ) of the press-molded body is represented by p and p is equal to or more than 6.8 + 1.86a.
A secondary battery comprising: a first oxide semiconductor layer having a first conductivity type; a first charging layer disposed on the first oxide semiconductor layer, the first charging layer composed by comprising a first insulating material and a second oxide semiconductor layer, the second oxide semiconductor layer having the first conductivity type; a third oxide semiconductor layer having a second conductivity type disposed on the first charging layer; and a hydroxide layer disposed between the first charging layer and the third oxide semiconductor layer , the hydroxide layer containing a hydroxide of a metal constituting the third oxide semiconductor layer. a first oxide semiconductor layer having a first conductivity type; a first charging layer disposed on the first oxide semiconductor layer, the first charging layer composed by comprising a first insulating material and a second oxide semiconductor layer, the second oxide semiconductor layer having the first conductivity type; a third oxide semiconductor layer having a second conductivity type disposed on the first charging layer; and a hydroxide layer disposed between the first charging layer and the third oxide semiconductor layer , the hydroxide layer containing a hydroxide of a metal constituting the third oxide semiconductor layer.
A method for controlling an induction cooking hob, wherein said method comprises an operation mode for estimating the energy efficiency EE, wherein the energy efficiency EE is given by the relationship EE = EP / EI , wherein EP is the electric energy transferred to a cooking pot arranged on the induction cooking hob and EI is the electric energy provided by the mains supply and wherein the electric energy EI provided by the mains supply EI = EP + ED is composed of the electric energy EP transferred to the cooking pot and a dissipated electric energy ED, and wherein said operation mode includes the steps of: a) estimating the dissipated electric energy ED of the induction cooking hob, b) comparing the dissipated electric energy ED with a threshold value EDthr for said dissipated electric energy ED, c) maintaining the current working parameters of the induction cooking hob, if the dissipated electric energy ED is not bigger than the threshold value EDthr, d) changing the current working parameters in order to decrease the dissipated electric energy, if the dissipated electric energy ED is bigger than the threshold value EDthr, and e) repeating the steps a) and b) and then c) or d), respectively, after a predetermined time period, wherein the dissipated electric energy ED is estimated from detected parameters of the cooling fan, induction generator and induction coil. a) estimating the dissipated electric energy ED of the induction cooking hob, b) comparing the dissipated electric energy ED with a threshold value EDthr for said dissipated electric energy ED, c) maintaining the current working parameters of the induction cooking hob, if the dissipated electric energy ED is not bigger than the threshold value EDthr, d) changing the current working parameters in order to decrease the dissipated electric energy, if the dissipated electric energy ED is bigger than the threshold value EDthr, and e) repeating the steps a) and b) and then c) or d), respectively, after a predetermined time period,