mhurhangee/patent-ind-claim-en huggingface dataset:
Implantable medical device for stimulating a human or animal heart, comprising a processor, a memory unit, a His electrode having a first electrode pole configured to detect an electrical signal at a His bundle of a human or animal heart , at least one further electrode having at least one further electrode pole configured to detect an electrical signal at a cardiac region of the same heart different from the His bundle , wherein the memory unit comprises a computer-readable program that causes the processor to perform the following steps when executed on the processor: measuring electric signals at a His bundle of a human or animal heart with the first electrode pole , measuring electric signals at a cardiac region of the same heart different from the His bundle with the at least one further electrode pole , and evaluating intracardiac electrogram signals and/or impedance signals measured between the first electrode pole and the at least one further electrode pole , with the provision that this evaluating does not only comprise a determination of an atrial-His bundle transition time, characterized in that the cardiac region different from the His bundle is a right ventricle or a left ventricle , and wherein the computer-readable program causes the processor to determine a relation between a signal detected by the first electrode and a signal detected by the at least one further electrode , and wherein the relation is or comprises a time relation between two signals. measuring electric signals at a His bundle of a human or animal heart with the first electrode pole , measuring electric signals at a cardiac region of the same heart different from the His bundle with the at least one further electrode pole , and evaluating intracardiac electrogram signals and/or impedance signals measured between the first electrode pole and the at least one further electrode pole , with the provision that this evaluating does not only comprise a determination of an atrial-His bundle transition time, characterized in that the cardiac region different from the His bundle is a right ventricle or a left ventricle , and wherein the computer-readable program causes the processor to determine a relation between a signal detected by the first electrode and a signal detected by the at least one further electrode , and wherein the relation is or comprises a time relation between two signals.
A method of making a primary alkaline battery including a cathode, an anode, a separator between the cathode and the anode; and an alkaline electrolyte, comprising: partially discharging the assembled battery within about one hour of cell closure, wherein the cathode comprises an oxide having a formula A x Ni 1 -y-z-wCo y M a z M b w O 2 ; wherein A is an alkali metal, M a is a metal dopant, M b is a non-metal dopant, 0 ≤ x ≤ 0.2, w is 0, or 0 ≤ w ≤ 0.02; and 0.02 ≤ y+z ≤ 0.25, wherein the freshly assembled battery is partially discharged at a rate of 10 to 100 mA/g of active material; maintaining the partially discharged battery for a period of time ranging from 1 to 24 hours at a temperature in the range of 25 to 70 °C to provide a pre-discharged primary alkaline battery; wherein the pre-discharged battery has an open circuit voltage value of less than or equal to 1.75 V at 25 °C. partially discharging the assembled battery within about one hour of cell closure, wherein the cathode comprises an oxide having a formula A x Ni 1 -y-z-wCo y M a z M b w O 2 ; wherein A is an alkali metal, M a is a metal dopant, M b is a non-metal dopant, 0 ≤ x ≤ 0.2, w is 0, or 0 ≤ w ≤ 0.02; and 0.02 ≤ y+z ≤ 0.25, wherein the freshly assembled battery is partially discharged at a rate of 10 to 100 mA/g of active material; A is an alkali metal, M a is a metal dopant, M b is a non-metal dopant, 0 ≤ x ≤ 0.2, w is 0, or 0 ≤ w ≤ 0.02; and 0.02 ≤ y+z ≤ 0.25, wherein the freshly assembled battery is partially discharged at a rate of 10 to 100 mA/g of active material; maintaining the partially discharged battery for a period of time ranging from 1 to 24 hours at a temperature in the range of 25 to 70 °C to provide a pre-discharged primary alkaline battery; wherein the pre-discharged battery has an open circuit voltage value of less than or equal to 1.75 V at 25 °C.
A method comprising: detecting , by a victim base station , a presence of an atmospheric duct event; triggering , by the victim base station , transmission of a victim reference signal (RS-1) in response to detecting the event; a first reporting , by the victim base station to a central entity , the event, wherein the first reporting includes an ID of the victim base station , wherein the central entity triggers an aggressor base station to begin reference signal monitoring; and a second reporting , by the aggressor base station to the central entity , a second event in response to detecting the victim reference signal (RS-1). detecting , by a victim base station , a presence of an atmospheric duct event; triggering , by the victim base station , transmission of a victim reference signal (RS-1) in response to detecting the event; a first reporting , by the victim base station to a central entity , the event, wherein the first reporting includes an ID of the victim base station , wherein the central entity triggers an aggressor base station to begin reference signal monitoring; and a second reporting , by the aggressor base station to the central entity , a second event in response to detecting the victim reference signal (RS-1).
A moisture sensor comprising: a sensor probe having two spaced conductors on a probe substrate, with a probe capacitance therebetween, wherein the probe capacitance is dependent upon a moisture content proximate the two spaced conductors; a first wirelessly-interrogable SAW device having a resonance frequency that is dependent on the probe capacitance of the sensor probe; a second wirelessly-interrogable SAW device having a resonance frequency that is dependent on the probe capacitance of the sensor probe, wherein the first wirelessly-interrogable SAW device has a first propagation axis along a piezoelectric substrate, and the second wirelessly-interrogable SAW device has a second propagation axis along the piezoelectric substrate that is not parallel to the first propagation axis; and at least one antenna electrically coupled to the first wirelessly-interrogable SAW device and the second wirelessly-interrogable SAW device. a sensor probe having two spaced conductors on a probe substrate, with a probe capacitance therebetween, wherein the probe capacitance is dependent upon a moisture content proximate the two spaced conductors; a first wirelessly-interrogable SAW device having a resonance frequency that is dependent on the probe capacitance of the sensor probe; a second wirelessly-interrogable SAW device having a resonance frequency that is dependent on the probe capacitance of the sensor probe, wherein the first wirelessly-interrogable SAW device has a first propagation axis along a piezoelectric substrate, and the second wirelessly-interrogable SAW device has a second propagation axis along the piezoelectric substrate that is not parallel to the first propagation axis; and at least one antenna electrically coupled to the first wirelessly-interrogable SAW device and the second wirelessly-interrogable SAW device.
A pharmaceutical composition comprising i) as therapeutic active agent from 5×10 10 to 1×10 12 CFU of lactobacilli and ii) from 15 to 300 mg of thiosulfate as combination products, for use as a first-line treatment of candidiasis and recurrent candidiasis.
- A container equipped with at least one weapon station , the weapon station being fixed on a first face of a movable panel (1a 1 ) of the container , characterised in that the movable panel (1a 1 ) is capable of turning over owing to a turning means by a half-revolution about a turning axis (X), the movable panel (1a 1 ) exposing the weapon station protruding outside the container in a so-called service position and positioning the weapon station inside the container in a so-called retracted position, the container including a weapon station handling device including a pivoting chassis capable of being secured with the weapon station , which chassis is vertically translatable in the container along a lifting means between a high position near the movable panel (1a 1 ) and a low position near a lower wall of the container , the pivoting chassis further being intended to turn the weapon station over in the container by a half-revolution about a horizontal axis (Y) between a so-called head-down position where the relative bearing axis (Z) of the weapon station is oriented vertically and oriented downward, and a so-called head-up position where the relative bearing axis (Z) of the weapon station is oriented vertically and oriented upward.
A communication system comprising: a third network node ; a first means that is configured to operate a first network node on a first virtual machine (VNF 200A) and a second network node on a second virtual machine (VNF 200B), wherein the first network node is configured to communicate with the third network node via a first communication session; and a second means that is configured to: initiate a switchover of a communication session with the third network node from the first network node to the second network node ; in response to completion of the switchover, forward a control signal indicating termination of the first communication session to the first virtual machine (VNF 200A) operating the first network node ; and forward the control signal indicating the termination of the first communication session, from the first virtual machine (VNF 200A) operating the first network node to the second virtual machine (VNF 200B) operating the second network node . a third network node ; a first means that is configured to operate a first network node on a first virtual machine (VNF 200A) and a second network node on a second virtual machine (VNF 200B), wherein the first network node is configured to communicate with the third network node via a first communication session; and a second means that is configured to: initiate a switchover of a communication session with the third network node from the first network node to the second network node ; in response to completion of the switchover, forward a control signal indicating termination of the first communication session to the first virtual machine (VNF 200A) operating the first network node ; and forward the control signal indicating the termination of the first communication session, from the first virtual machine (VNF 200A) operating the first network node to the second virtual machine (VNF 200B) operating the second network node . initiate a switchover of a communication session with the third network node from the first network node to the second network node ; in response to completion of the switchover, forward a control signal indicating termination of the first communication session to the first virtual machine (VNF 200A) operating the first network node ; and forward the control signal indicating the termination of the first communication session, from the first virtual machine (VNF 200A) operating the first network node to the second virtual machine (VNF 200B) operating the second network node .
Electric filter for purifying dielectric fluids, preferably air, the electric filter comprising a housing that contains at least three successive bundles of collecting electrodes , each bundle comprising at least one pair of electrically connected collecting electrodes , wherein the pairs of electrically connected collecting electrodes of adjacent bundles are electrically separated from each other and can be supplied with different electric potentials such that a strength of an electric field changes in a flow direction of a fluid, characterized in that adjacent bundles are spaced apart from each other by means of an elongated dielectric partition wall , wherein a length (d1) of an elongated dielectric partition wall is greater or smaller than a length (d2) of an elongated dielectric partition wall following in a flow direction, wherein the lengths (d1, d2) of the elongated dielectric partition walls are respectively equal to or greater than lengths (c1, c2) of the respective bundles lying closest to the elongated dielectric partition walls against the flow direction.
Apparatus designed to determine and/or monitor at least a process variable of a medium in a vessel with at least - a unit capable of vibrating mechanically , - a drive/reception unit designed to excite the unit capable of vibrating mechanically to perform mechanical vibrations by means of an electrical excitation signal (U A ), and to receive and convert the mechanical vibrations to an electrical reception signal (U E ), - an electronic unit , wherein said electronic unit is designed to ∘ generate the excitation signal (U A ) on the basis of the reception signal (U E ), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A ) and the reception signal (U E ), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E ), and - a phase correction unit , wherein said phase correction unit is at least designed to ∘ determine a phase correction value (ΔΦ kor ) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus , particularly the drive/reception unit , and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor ), characterized in that the characteristic variable is defined by at least a capacitance (C AE ) or an inductance, which depends on at least one process parameter, at least of a component of the drive/reception unit or by at least a time constant (T proz , T ref ) which depends on at least one process parameter. - a unit capable of vibrating mechanically , - a drive/reception unit designed to excite the unit capable of vibrating mechanically to perform mechanical vibrations by means of an electrical excitation signal (U A ), and to receive and convert the mechanical vibrations to an electrical reception signal (U E ), - an electronic unit , wherein said electronic unit is designed to ∘ generate the excitation signal (U A ) on the basis of the reception signal (U E ), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A ) and the reception signal (U E ), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E ), and ∘ generate the excitation signal (U A ) on the basis of the reception signal (U E ), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A ) and the reception signal (U E ), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E ), - a phase correction unit , wherein said phase correction unit is at least designed to ∘ determine a phase correction value (ΔΦ kor ) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus , particularly the drive/reception unit , and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor ), ∘ determine a phase correction value (ΔΦ kor ) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus , particularly the drive/reception unit , and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor ),
A method of operating a self-propelled harvester which is operated selectively in a harvesting operating mode and an on-road travel mode, including an internal combustion engine whose rotary speed is adjusted by a control device in dependence on the selected operating mode, characterised in that a starting rotary speed (n Anfahr ) is predetermined by the control device in the on-road travel mode for a starting operation from standstill, the starting rotary speed being reduced to an engine speed (n red1 , n red2 , n red3 ) required for attaining a permissible maximum travel speed (v max1 , v max2 , v max3 ), wherein the starting rotary speed (n Anfahr ) is above an engine speed (n red1 , n red2 , n red3 ) required for attaining a permissible maximum speed.
A method of operating a material handling machine having a material handling implement moveable relative to a chassis of the machine , the method including the steps of a) manually positioning the material handling implement in a first position of a first region of a trench, the first region being a region where it is desired to manually dig the trench, b) manually moving the material handling implement to a second region , the second region being a region where it is desired to deposit spoil, c) providing a control system and enabling the control system to automatically return the material handling implement to the first region by directly positioning the material handling implement at a second position of the first region , the second position being a next sequential position where it is desired to manually dig the trench, d) manually returning the material handling implement to the second region . a) manually positioning the material handling implement in a first position of a first region of a trench, the first region being a region where it is desired to manually dig the trench, b) manually moving the material handling implement to a second region , the second region being a region where it is desired to deposit spoil, c) providing a control system and enabling the control system to automatically return the material handling implement to the first region by directly positioning the material handling implement at a second position of the first region , the second position being a next sequential position where it is desired to manually dig the trench, d) manually returning the material handling implement to the second region .
A UV-protective composition comprising one or more Lanthanum-Modified Bismuth Titanate (BLT) crystals each independently having the chemical formula Bi (4-x) La (x) Ti (3-y) Fe (y) O 12 as an ultraviolet-absorbing agent, wherein x is between 0.1 and 1.5; and wherein y is between >0 and 2, wherein the BLT crystals are in the form of nanoparticles consisting of one or more said crystals, at least 50% of the total number of said nanoparticles having at least one dimension of up to 200 nm.
A method comprising: receiving information that comprises: elastic property information; and sonic data acquired via a tool disposed at a plurality of depths of a logging interval in a bore in a subterranean environment that comprises at least one anisotropic formation; processing the information to generate processed information, wherein the processed information comprises: variance information associated with the received elastic property information, and velocity information and orientation information associated with the received sonic data; performing an inversion based at least in part on the variance information and the velocity information comprised in the processed information by at least iteratively accessing the velocity information to determine synthetic velocities that, in part, determine model likelihood probabilities; and outputting values for elastic parameters based at least in part on a Z probabilistic model of the inversion for characterization of the subterranean environment, wherein the probabilistic model provides the values for the elastic parameters as a description with respect to a depth of the logging interval. receiving information that comprises: elastic property information; and sonic data acquired via a tool disposed at a plurality of depths of a logging interval in a bore in a subterranean environment that comprises at least one anisotropic formation; elastic property information; and sonic data acquired via a tool disposed at a plurality of depths of a logging interval in a bore in a subterranean environment that comprises at least one anisotropic formation; processing the information to generate processed information, wherein the processed information comprises: variance information associated with the received elastic property information, and velocity information and orientation information associated with the received sonic data; variance information associated with the received elastic property information, and velocity information and orientation information associated with the received sonic data; performing an inversion based at least in part on the variance information and the velocity information comprised in the processed information by at least iteratively accessing the velocity information to determine synthetic velocities that, in part, determine model likelihood probabilities; and outputting values for elastic parameters based at least in part on a Z probabilistic model of the inversion for characterization of the subterranean environment, wherein the probabilistic model provides the values for the elastic parameters as a description with respect to a depth of the logging interval.
A sole structure for an article of footwear , the sole structure comprising: a plate having an upper surface , a lower surface opposite the upper surface , and a plurality of first projections extending from the lower surface and including a generally circular shape; an outsole having an upper surface , a lower surface opposite the upper surface of the outsole , and a plurality of second projections extending from the upper surface of the outsole and including a generally circular shape; and a chamber disposed between the plate and the outsole and enclosing a fluid, the chamber having an upper surface , a lower surface opposite the upper surface of the chamber , a plurality of first depressions formed in the upper surface of the chamber , and a plurality of second depressions formed in the lower surface of the chamber , the plurality of first projections disposed in the plurality of first depressions and the plurality of second projections disposed in the plurality of second depressions. a plate having an upper surface , a lower surface opposite the upper surface , and a plurality of first projections extending from the lower surface and including a generally circular shape; an outsole having an upper surface , a lower surface opposite the upper surface of the outsole , and a plurality of second projections extending from the upper surface of the outsole and including a generally circular shape; and a chamber disposed between the plate and the outsole and enclosing a fluid, the chamber having an upper surface , a lower surface opposite the upper surface of the chamber , a plurality of first depressions formed in the upper surface of the chamber , and a plurality of second depressions formed in the lower surface of the chamber , the plurality of first projections disposed in the plurality of first depressions and the plurality of second projections disposed in the plurality of second depressions.
Method for testing the activation of a G-protein coupled taste receptor comprising the steps of: a) providing a cell natively expressing the taste receptor and comprising an enzyme complementation system, b) adding a taste modulating compound to the cell, c) adding a substrate for an enzyme of the enzyme complementation system to the cell, wherein the substrate is reacting with the enzyme, when the taste receptor is activated, providing a signal, and d) detecting the signal; wherein the G-protein coupled taste receptor is a sweet taste receptor comprising the subunits T1R2 and T1R3 (T1R2/ T1R3), an umami taste receptor comprising the subunits T1R1 and T1R3 (T1R1/T1R3), or any of the bitter taste receptors (T2Rs). a) providing a cell natively expressing the taste receptor and comprising an enzyme complementation system, b) adding a taste modulating compound to the cell, c) adding a substrate for an enzyme of the enzyme complementation system to the cell, wherein the substrate is reacting with the enzyme, when the taste receptor is activated, providing a signal, and d) detecting the signal;