mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable medical device configured to detect pacemaker mediated tachycardia (PMT) comprising: a sensing module configured to sense atrial events (As); a signal generator configured to generate and deliver electrical ventricular stimulation pulses (Vp); a processor coupled to the sensing module and the signal generator and configured to control the stimulation generator to deliver a said Vp on expiration of a defined sensed atrio ventricular (SAV) interval following a said As, the processor further configured to: measure a first Vp-As interval (VA1), (2 lengthen a subsequent SAV interval by a certain amount of time over the defined SAV interval for 1 beat in response to measuring VA1, and characterized in that the processor is further configured to: measure a second Vp-As (VA2), determine whether VA1=VA2, in response to determining that VA1=VA2, confirming presence of PMT and in response to confirming presence of PMT, extending a post-ventricular atrial refractory period (PVARP) following a subsequent said Vp by a pre-specified amount of time. a sensing module configured to sense atrial events (As); a signal generator configured to generate and deliver electrical ventricular stimulation pulses (Vp); a processor coupled to the sensing module and the signal generator and configured to control the stimulation generator to deliver a said Vp on expiration of a defined sensed atrio ventricular (SAV) interval following a said As, the processor further configured to: measure a first Vp-As interval (VA1), (2 lengthen a subsequent SAV interval by a certain amount of time over the defined SAV interval for 1 beat in response to measuring VA1, and characterized in that the processor is further configured to: measure a second Vp-As (VA2), determine whether VA1=VA2, in response to determining that VA1=VA2, confirming presence of PMT and in response to confirming presence of PMT, extending a post-ventricular atrial refractory period (PVARP) following a subsequent said Vp by a pre-specified amount of time. measure a first Vp-As interval (VA1), (2 lengthen a subsequent SAV interval by a certain amount of time over the defined SAV interval for 1 beat in response to measuring VA1, and characterized in that the processor is further configured to: measure a second Vp-As (VA2), determine whether VA1=VA2, in response to determining that VA1=VA2, confirming presence of PMT and in response to confirming presence of PMT, extending a post-ventricular atrial refractory period (PVARP) following a subsequent said Vp by a pre-specified amount of time.
- A cooling process for cooling hot washed containers in a washing machine , the method comprising the steps of: - advancing, by means of a conveyor device , a plurality of said hot washed containers and at least one member of said conveyor along a washing path (P) with an outlet station (O) and a return zone (R1) downstream of said outlet station (O) and upstream of the inlet station (I), according to an advancing direction of said member along said path (P); - sequentially cooling said member and said containers for a first and a second time by putting said member in thermal contact respectively with a first and a second heat transfer medium, respectively at a first and a second heat exchange zone (H1, H2) arranged in sequence along said path (P) and upstream of said outlet station (O) according said advancing direction, such that said first heat transfer medium is heated up to a temperature higher than that of said second heat transfer medium; - discharging said containers at said outlet station (O) further comprising the steps of: - circulating said first heat transfer medium between said first heat exchange zone (H1) and said return zone (R1); - heating said member and cooling said first heat transfer medium by putting said member in thermal contact with said first heat transfer medium at said return zone (R1); and - returning the cooled said first heat transfer medium to said first heat exchange zone (H1) for cooling said containers . - advancing, by means of a conveyor device , a plurality of said hot washed containers and at least one member of said conveyor along a washing path (P) with an outlet station (O) and a return zone (R1) downstream of said outlet station (O) and upstream of the inlet station (I), according to an advancing direction of said member along said path (P); - sequentially cooling said member and said containers for a first and a second time by putting said member in thermal contact respectively with a first and a second heat transfer medium, respectively at a first and a second heat exchange zone (H1, H2) arranged in sequence along said path (P) and upstream of said outlet station (O) according said advancing direction, such that said first heat transfer medium is heated up to a temperature higher than that of said second heat transfer medium; - discharging said containers at said outlet station (O) further comprising the steps of: - circulating said first heat transfer medium between said first heat exchange zone (H1) and said return zone (R1); - heating said member and cooling said first heat transfer medium by putting said member in thermal contact with said first heat transfer medium at said return zone (R1); and - returning the cooled said first heat transfer medium to said first heat exchange zone (H1) for cooling said containers .
A method comprising: merging two primitives by interpolating vertex attributes of the primitives at coarse pixel centers in a same draw call and corresponding to a same coarse pixel on a screen by computing input attributes as a coverage weighted average of the interpolated vertex attributes, wherein the coverage is a coverage within the coarse pixel of a triangle of a shading cluster that overlaps the coarse pixel; and performing coarse pixel shading using the merged primitives. merging two primitives by interpolating vertex attributes of the primitives at coarse pixel centers in a same draw call and corresponding to a same coarse pixel on a screen by computing input attributes as a coverage weighted average of the interpolated vertex attributes, wherein the coverage is a coverage within the coarse pixel of a triangle of a shading cluster that overlaps the coarse pixel; and performing coarse pixel shading using the merged primitives.
A centrifugal force pendulum device having at least one flange element which can be rotated about an axis of rotation , which is arranged on the drive side and on which pendulum masses are arranged as centrifugal weights in an articulated manner so as to be displaceable, wherein the pendulum masses on the at least one flange element are distributed over the circumference thereof and are mounted on the at least one flange element by means of pendulum bearings , wherein the pendulum masses can oscillate relative to the at least one flange element in the centrifugal force field of the flange element about a zero position with a predetermined oscillation angle (α) by means of the pendulum bearings which are formed from roller elements rolling on guideways of the at least one flange element and the pendulum masses , and are suspended in a partially rotatable manner during a pendulum movement about the centre of gravity (S) thereof and wherein the pendulum and rotational movement of the pendulum masses is predefined by the design of the guideways and the coupling element , characterised in that the pendulum masses are coupled to one another by means of a coupling element , wherein the coupling element acts on the respective pendulum mass at an isoradial point , which remains at the same radial height during a pendulum and rotational movement of the pendulum masses , wherein the respective distances between the isoradial points of the respective pendulum masses also remain constant relative to one another.
A method for detecting an event on a sports track during a sports event comprising: providing at least two track segments across a width of the sports track , the at least two track segments (I, II) being disposed side by side across the width of the sports track; detecting (2-1), using a detector per track segment, passage of participants of the sports event for each of the at least two track segments separately to obtain for each of the at least two track segments a number of participants having passed the respective track segment (I, II) in a particular time interval; comparing (2-II) each of the obtained numbers of passed participants with an electronically available known track segment passage result for the corresponding track segment (I, II); detecting (2-III) an event on the sports track when at least one of the obtained numbers of passed participants deviates by at least a deviation margin from the known track segment passage result for the corresponding track segment (I, II); generating an alert signal in response to detecting the event; transmitting the alert signal to an operator device; and the operator device modifying settings of a detection system or resetting the detection system without direct manual operation by an operator of the operator device based on the alert signal. providing at least two track segments across a width of the sports track , the at least two track segments (I, II) being disposed side by side across the width of the sports track; detecting (2-1), using a detector per track segment, passage of participants of the sports event for each of the at least two track segments separately to obtain for each of the at least two track segments a number of participants having passed the respective track segment (I, II) in a particular time interval; comparing (2-II) each of the obtained numbers of passed participants with an electronically available known track segment passage result for the corresponding track segment (I, II); detecting (2-III) an event on the sports track when at least one of the obtained numbers of passed participants deviates by at least a deviation margin from the known track segment passage result for the corresponding track segment (I, II); generating an alert signal in response to detecting the event; transmitting the alert signal to an operator device; and the operator device modifying settings of a detection system or resetting the detection system without direct manual operation by an operator of the operator device based on the alert signal.
Process for increasing the stability towards oxidation of a composition comprising polyunsaturated omega-3 fatty acids comprising the following steps: (i) providing a starting composition comprising at least one polyunsaturated omega-3 fatty acid component; (ii) providing a lysine composition; (iii) admixing aqueous, aqueous-alcoholic or alcoholic solutions of starting composition and lysine composition, and subjecting resulting admixture to spray drying conditions subsequently, thus forming a solid product composition comprising at least one salt of a cation derived from lysine with an anion derived from a polyunsaturated omega-3 fatty acid; the product composition exhibiting a solvent content SC selected from the following: SC < 5 wt%, SC < 3 wt%, SC < 1 wt%, SC < 0.5 wt%, wherein starting composition in step (i) and lysine composition in step (ii) are provided in such a manner that at least 90 wt% of the product composition consist of one or more salts of cations derived from lysine with anions derived from one or more polyunsaturated omega-3 fatty acids and other naturally occurring fatty acids. (i) providing a starting composition comprising at least one polyunsaturated omega-3 fatty acid component; (ii) providing a lysine composition; (iii) admixing aqueous, aqueous-alcoholic or alcoholic solutions of starting composition and lysine composition, and subjecting resulting admixture to spray drying conditions subsequently, thus forming a solid product composition comprising at least one salt of a cation derived from lysine with an anion derived from a polyunsaturated omega-3 fatty acid; the product composition exhibiting a solvent content SC selected from the following: SC < 5 wt%, SC < 3 wt%, SC < 1 wt%, SC < 0.5 wt%,
A device for detecting a cardiac signal of a patient comprising: a set of electrodes (112, 112-X) configured to be positioned for detection of facial biopotential signals approximately in a sagittal plane orientation; and a processor coupled with the set of electrodes, the processor being configured to control a detection of a cardiac signal from the facial biopotential signals detected by the set of electrodes, wherein the set of electrodes comprises at least a first electrode and a second electrode, the first electrode being a sub-rhinal electrode such that, in use, it is positioned below a rhinal axis (RA) on the patient's face, and the second electrode being a neck electrode such that, in use, it is positioned on the patient's neck; wherein the rhinal axis is an imaginary axis perpendicular to the patient's sagittal plane and running approximately across a vertical middle of a rhinal region of the patient's face. a set of electrodes (112, 112-X) configured to be positioned for detection of facial biopotential signals approximately in a sagittal plane orientation; and a processor coupled with the set of electrodes, the processor being configured to control a detection of a cardiac signal from the facial biopotential signals detected by the set of electrodes, wherein the set of electrodes comprises at least a first electrode and a second electrode, the first electrode being a sub-rhinal electrode such that, in use, it is positioned below a rhinal axis (RA) on the patient's face, and the second electrode being a neck electrode such that, in use, it is positioned on the patient's neck; wherein the rhinal axis is an imaginary axis perpendicular to the patient's sagittal plane and running approximately across a vertical middle of a rhinal region of the patient's face.
A computer-implemented process for authorizing a passing maneuver comprising: receiving, by a processor , a first message, the first message indicating a position of a first industrial vehicle in a work environment; receiving, by the processor , a second message, the second message indicating a position of an electronic badge that is detected by the first industrial vehicle ; receiving, by the processor , a third message, the third message indicating a position of a second industrial vehicle within the work environment; determining, by the processor , that the second industrial vehicle intends to pass the first industrial vehicle ; determining, by the processor and based upon the position of the first industrial vehicle , the position of the electronic badge , and the position of the second industrial vehicle , an instruction comprising select one of: an instruction related to a passing maneuver; and an instruction not to pass; and communicating the instruction to the second industrial vehicle , wherein the second industrial vehicle performs the received instruction in response to the communication. receiving, by a processor , a first message, the first message indicating a position of a first industrial vehicle in a work environment; receiving, by the processor , a second message, the second message indicating a position of an electronic badge that is detected by the first industrial vehicle ; receiving, by the processor , a third message, the third message indicating a position of a second industrial vehicle within the work environment; determining, by the processor , that the second industrial vehicle intends to pass the first industrial vehicle ; determining, by the processor and based upon the position of the first industrial vehicle , the position of the electronic badge , and the position of the second industrial vehicle , an instruction comprising select one of: an instruction related to a passing maneuver; and an instruction not to pass; and an instruction related to a passing maneuver; and an instruction not to pass; and communicating the instruction to the second industrial vehicle , wherein the second industrial vehicle performs the received instruction in response to the communication.
Electric machine comprising a stator and a rotor , said rotor being formed of a rotor body with a stack of sheets and placed on a rotor shaft , said rotor carrying rectangular recesses housing magnetic flux generators and recesses forming magnetic flux barriers , said rectangular recesses housing the magnetic flux generators ) are distributed along orthogonal axes (XX ', YY') and passing through the center (O) of said rotor , characterized in that each semi-axis (OX, OX ', OY, OY') carrying three rectangular recesses housing the magnetic flux generators whose faces of greater length are perpendicular to the semi-axes (OX, OX', OY, OY') and whose dimensions of these faces decrease from the center (O) towards the periphery of said rotor body , in that the recesses forming magnetic flux barriers are of constant height (h) and of inclined radial direction, starting from these rectangular recesses housing magnetic flux generators to arrive in the vicinity of the edge of the sheets , and are arranged symmetrically with respect to said rectangular recesses housing magnetic flux generators by forming a geometric figure in the form of a V with a flattened bottom with the flat bottom formed by a rectangular recess housing the magnetic flux generator and with the inclined arms of this V formed by the recesses forming magnetic flux barriers , obtaining on each semi-axes (OX, OX ', OY, OY') three superimposed V shapes and at a distance from each other and of dimensions in height and in width decreasing from the bore towards the periphery of the rotor body and that the rotor comprises at least one cavity for receiving at least one dynamic balancing mass of said rotor , said cavity being located between the rectangular void housing the magnetic flux generator furthest from the rotor shaft and the periphery of the rotor body , adjacent to the periphery of the rotor body .
A connection assembly comprising: a first connection part and a second connection part , said first and second connection part being configured to realize a gas tight connection; one or more gas sensitive parts arranged at a connection interface between the first connection part and the second connection part, wherein the one or more gas sensitive parts are configured to undergo a modification when a gas passes along the connection interface; and one or more detection modules configured to detect a modification of the one or more gas sensitive parts, characterized in that the connection assembly further comprises a seal arranged between the first connection part and the second connection part and in that the connection assembly comprises at least one of the one or more gas sensitive parts provided downstream of the seal. a first connection part and a second connection part , said first and second connection part being configured to realize a gas tight connection; one or more gas sensitive parts arranged at a connection interface between the first connection part and the second connection part, wherein the one or more gas sensitive parts are configured to undergo a modification when a gas passes along the connection interface; and
A method of modifying a strap tensioning device setting of a strap tensioning device , said method comprising: pairing a user device and the strap tensioning device such that a wireless communication device of the user device and a wireless communication device of the strap tensioning device can communicate with one another over a network ; receiving, by an input device of the user device , a modification to a strap tensioning device setting of the paired strap tensioning device ; and communicating, by the wireless communication device of the user device , the modification of the strap tensioning device setting to the wireless communication device of the paired strap tensioning device to cause the paired strap tensioning device to change the strap tensioning device setting in accordance with the modification, characterized in that the strap tensioning device setting cannot be modified other than via receipt of the modification from the wireless communication device of the user device . pairing a user device and the strap tensioning device such that a wireless communication device of the user device and a wireless communication device of the strap tensioning device can communicate with one another over a network ; receiving, by an input device of the user device , a modification to a strap tensioning device setting of the paired strap tensioning device ; and communicating, by the wireless communication device of the user device , the modification of the strap tensioning device setting to the wireless communication device of the paired strap tensioning device to cause the paired strap tensioning device to change the strap tensioning device setting in accordance with the modification, characterized in that the strap tensioning device setting cannot be modified other than via receipt of the modification from the wireless communication device of the user device .
Suspension of a tool on a vehicle where the tool is to adapt to changing surface , where the tool is attached to the vehicle by an arm , and where the arm at a first end is connected to the vehicle and the tool is attached to a second end of the arm , and where a first pivot joint is positioned between the vehicle and the tool allowing a rotation around a first pivot axis of the tool relative to the vehicle in a direction of up and down relative to the terrain, where the suspension comprises balancing system where the balancing system comprises a first part attached to the vehicle and to a position at the arm and where a first adjustable actuating member acts with a first adjustable force on the arm to give an upward rotation of the tool relative to the vehicle around the first pivot joint , characterized in that a second pivot joint is positioned at a position between the first pivot joint and the tool allowing a rotation of the tool relative to the section of the arm between the first and second pivot joints in a direction of up and down relative to the terrain.
A display device , comprising: a flexible substrate including a display area (DA) and a bezel area (ZA) surrounding the display area (DA); and a bending sensor for the detection of a bending of the flexible substrate in a predefined bending area (BA) thereof, the bending sensor including a curved unit disposed in the bezel area (ZA) of the bending area (BA), a detection unit configured to detect a bending information by sensing an electric change in the curved unit and a wiring part connecting the curved unit to the detection unit, wherein the bending sensor is configured to transfer the electric change occurring in the curved unit when the flexible substrate is bent to the detection unit via the wiring part , characterised in that the curved unit includes wirings respectively extending in different directions and forming a diamond shaped or circular shaped pattern when viewed in a plan view such that the stress applied on said wirings during bending is reduced. a flexible substrate including a display area (DA) and a bezel area (ZA) surrounding the display area (DA); and a bending sensor for the detection of a bending of the flexible substrate in a predefined bending area (BA) thereof, the bending sensor including a curved unit disposed in the bezel area (ZA) of the bending area (BA), a detection unit configured to detect a bending information by sensing an electric change in the curved unit and a curved unit disposed in the bezel area (ZA) of the bending area (BA), a detection unit configured to detect a bending information by sensing an electric change in the curved unit and a wiring part connecting the curved unit to the detection unit, wherein the bending sensor is configured to transfer the electric change occurring in the curved unit when the flexible substrate is bent to the detection unit via the wiring part , characterised in that the curved unit includes wirings respectively extending in different directions and forming a diamond shaped or circular shaped pattern when viewed in a plan view such that the stress applied on said wirings during bending is reduced.