mhurhangee/ep-ind-claims huggingface dataset:
A ground pressure distribution system for an at least two-part vehicle, comprising: • an articulated device, arranged between the two carriages (12, 13) and having at least one tilt axis, • at least one sensor and • a control unit, wherein the at least one sensor detects vehicle data which indicate a rearing up during acceleration or dipping during braking of the vehicle and is connected to the controller and the controller controls at least one actuator as a function of the vehicle data in order to counteract a rearing up during acceleration or dipping during braking, wherein the at least one actuator is operatively arranged with respect to the at least one tilt axis of the articulation device, wherein the at least one sensor detects at least one of: a drive torque and/or an engine torque and a gear stage and/or a vehicle position. • an articulated device, arranged between the two carriages (12, 13) and having at least one tilt axis, • at least one sensor and • a control unit, wherein the at least one sensor detects vehicle data which indicate a rearing up during acceleration or dipping during braking of the vehicle and is connected to the controller and the controller controls at least one actuator as a function of the vehicle data in order to counteract a rearing up during acceleration or dipping during braking, wherein the at least one actuator is operatively arranged with respect to the at least one tilt axis of the articulation device, wherein the at least one sensor detects at least one of: a drive torque and/or an engine torque and a gear stage and/or a vehicle position.
Method for controlling/regulating a robot manipulator, which has a sensor for detecting a mechanical interaction with an environment, in which - a force-time curve of an external force F ( t) acting on the robot manipulator is detected by the sensor, - a time span Δt 1 is determined, which indicates the time span from exceeding a predetermined threshold G1 at the time t 0 to reaching a subsequent first maximum Max1(| F ( t)|) of the force-time curve F ( t) at the time t 1, - a time span Δt 2 is determined, which indicates a time span from t 1 to reaching a subsequent first minimum Min1(| F ( t)|) of the force-time curve F (t) at the time t 2, and - a safety mode of the robot manipulator is activated if: Δt 1 + Δt 2 = Δt G < G2 and/or Max1(| F ( t)|) > G3, wherein G2 and G3 are predetermined thresholds, wherein - the safety mode controls/regulates a movement speed | V (t) | and/or a movement direction V (t) /| V (t) |, - the movement speed | V (t) | and/or the movement direction V (t) /| V (t) | of the robot manipulator is/are controlled/regulated with a speed or torque control prior to activation of the safety mode as a function of predetermined medical parameters, and after activation of the safety mode is/are controlled by a force control, in which the movement of the robot manipulator is controlled/regulated as a function of the detected force F(t), wherein the medical parameters parameterize a degree of injury, a degree of pain perception, a degree or damage and/or another degree of risk. - a force-time curve of an external force F ( t) acting on the robot manipulator is detected by the sensor, - a time span Δt 1 is determined, which indicates the time span from exceeding a predetermined threshold G1 at the time t 0 to reaching a subsequent first maximum Max1(| F ( t)|) of the force-time curve F ( t) at the time t 1, - a time span Δt 2 is determined, which indicates a time span from t 1 to reaching a subsequent first minimum Min1(| F ( t)|) of the force-time curve F (t) at the time t 2, and - a safety mode of the robot manipulator is activated if: Δt 1 + Δt 2 = Δt G < G2 and/or Max1(| F ( t)|) > G3, wherein G2 and G3 are predetermined thresholds, - the safety mode controls/regulates a movement speed | V (t) | and/or a movement direction V (t) /| V (t) |, - the movement speed | V (t) | and/or the movement direction V (t) /| V (t) | of the robot manipulator is/are controlled/regulated with a speed or torque control prior to activation of the safety mode as a function of predetermined medical parameters, and after activation of the safety mode is/are controlled by a force control, in which the movement of the robot manipulator is controlled/regulated as a function of the detected force F(t), wherein the medical parameters parameterize a degree of injury, a degree of pain perception, a degree or damage and/or another degree of risk.
Method for connecting a sanitary article controller to a computer or for connecting a sanitary article controller selected from a group of at least two sanitary article controllers (1a, 1b, 1c, 1d, 1e, 1f) to a computer, wherein the sanitary article controller (1a, 1b, 1c, 1d, 1e, 1f) is configured to control a function of a sanitary article (9a, 9b, 9d, 9f) and comprises at least one processor, a wireless communication interface operatively connected to the processor, and an input interface operatively connected to the processor, wherein the computer comprises at least one processor, a wireless communication interface operatively connected to the processor, and a display operatively connected to the processor, wherein a pairing process is performed for the data connection between the sanitary article controller to be connected and the computer, characterized in that during the pairing process the input interface of the sanitary article controller to be connected is actuated, on the basis of which actuation the data connection between the communication interface of said sanitary article controller and the communication interface of the computer is established in such a way that data are exchanged between the processor of the sanitary article controller and the processor of the computer, and that the input interface is a detection sensor arranged at the sanitary article controller, which upon detection of a user provides a signal for the sanitary article controller, whereby the latter then controls a functional element of the sanitary article (9a-9f), whereby a sanitary function, such as a water outlet or a flushing, is triggered. wherein the sanitary article controller (1a, 1b, 1c, 1d, 1e, 1f) is configured to control a function of a sanitary article (9a, 9b, 9d, 9f) and comprises at least one processor, a wireless communication interface operatively connected to the processor, and an input interface operatively connected to the processor, wherein the computer comprises at least one processor, a wireless communication interface operatively connected to the processor, and a display operatively connected to the processor, wherein a pairing process is performed for the data connection between the sanitary article controller to be connected and the computer, characterized in that during the pairing process the input interface of the sanitary article controller to be connected is actuated, on the basis of which actuation the data connection between the communication interface of said sanitary article controller and the communication interface of the computer is established in such a way that data are exchanged between the processor of the sanitary article controller and the processor of the computer, and that the input interface is a detection sensor arranged at the sanitary article controller, which upon detection of a user provides a signal for the sanitary article controller, whereby the latter then controls a functional element of the sanitary article (9a-9f), whereby a sanitary function, such as a water outlet or a flushing, is triggered.
Timepiece display mechanism comprising at least one roller (10, 11, 12, 13, 14) pivoting about a roller axis, said roller (10, 11, 12, 13, 14) comprising at least one flap pivoting about a flap axis parallel to said roller axis and distinct from said roller axis, said at least one flap comprising at least one first face and at least one second face, said display mechanism comprising first drive means for pivoting said roller (10, 11, 12, 13, 14) about said roller axis, wherein said display mechanism includes second drive means distinct from said first drive means for pivoting at least one said flap about its said flap axis, in at least one determined position of said flap axis relative to said roller axis, characterized in that said second drive means comprise, at each said flap, at least one flap drive pinion centred on said flap axis and arranged to cooperate with a control means, comprised in said display mechanism, to modify, in sequence or continuously, the position of said successive flaps of the same said roller (10, 11, 12, 13, 14), or to modify, on demand, the position of a said specific flap.
Pneumatic vehicle tyre, in particular all-terrain or off-road tyre, having a tread which is divided by circumferential grooves (5, 5'), which have the provided profile depth, into block rows (2, 3, 4) which run in encircling fashion in a circumferential direction and/or profile ribs which are structured in the manner of profile blocks, wherein block rows (2, 3, 4) are divided by transverse grooves (6, 7, 8) into blocks (2a, 3a, 4a) and, like the profile ribs structured in the manner of profile blocks, are equipped with blind grooves (9, 10, 11) proceeding from the circumferential grooves (5, 5'), wherein transverse grooves (6, 7, 8) and/or blind grooves (9, 10, 11) are provided which, owing to a connection of those blocks (2a, 3a, 4a) which are adjacent in the circumferential direction and/or of the block-like structures, have a depth smaller than the profile depth, wherein the connection has at least two connection steps (12, 12', 13, 13') of different heights (h 1, h 2, h 3), of which the lowest is formed in each case at the region in which the transverse grooves (6, 7, 8) and/or blind grooves (9, 10, 11) open into the circumferential grooves (5, 5'), and the highest connection step (13, 13') is formed in transverse grooves (6, 7, 8) in the middle region thereof and in blind grooves (9, 10, 11) in the inner end region thereof characterized in that the connection steps (12, 12', 13, 13') are equipped with step edges along which webs (14, 14') run on the step surfaces (12a, 12'a, 13a, 13'a).
A glass precursor sealing composition comprising: 20-40 mol% MgO; 14-40 mol% CaO; and 40-45 mol% SiO 2; wherein the composition is free of Al 2 O 3 and B 2 O 3; and wherein the total (MgO + CaO) content (mol%) is greater than or equal to the SiO 2 content (mol%). 20-40 mol% MgO; 14-40 mol% CaO; and 40-45 mol% SiO 2; wherein the composition is free of Al 2 O 3 and B 2 O 3; and wherein the total (MgO + CaO) content (mol%) is greater than or equal to the SiO 2 content (mol%).
A method of, during an ongoing session, switching from a first multicast IP television channel arranged to be delivered to a plurality of nodes, to a unicast second IP television channel, the method comprising: at an IP television receiving node, receiving the first IP television channel; characterized by, at the IP television receiving node, determining that the first IP television channel is no longer available; identifying an IP television content provider capable of providing the same IP television channel in a unicast as the first IP television channel; sending a message to an IP television Application Server, the message including an instruction to switch to the unicast second IP television channel and informing the IP television Application Server which IP television content provider to use; and receiving the unicast second IP television channel. at an IP television receiving node, receiving the first IP television channel; characterized by, at the IP television receiving node, determining that the first IP television channel is no longer available; identifying an IP television content provider capable of providing the same IP television channel in a unicast as the first IP television channel; sending a message to an IP television Application Server, the message including an instruction to switch to the unicast second IP television channel and informing the IP television Application Server which IP television content provider to use; and receiving the unicast second IP television channel.
Air delivery lock for a cargo located in an aircraft, comprising: - engaging means movable between an extended position in which they are able to restrain the cargo and a hidden position in which they are not able to restrain said cargo, a first elastic means and an overcenter mechanism, characterised in that it further comprises: - a cradle pivotably movable around a cradle rotation axis located at the proximity of the central portion of the cradle, the engaging means being pivotably joined to the cradle at one end of the cradle around a engaging means rotation axis, - the first elastic means extending between the other end of the cradle and the engaging means, the engaging means, the cradle and the first elastic means being configured such that when the engaging means are pivotally moved with respect to the cradle towards a hidden position, the first elastic means are compressed, - the overcenter mechanism joined to the cradle at one end of the overcenter mechanism, the engaging means, the cradle, the first elastic means and the overcenter mechanism configured such that when the engaging means receive a force over a compression threshold value of the first elastic means, the engaging means push the overcenter mechanism which moves from a first position in which the cradle maintains the engaging means in an extended position, to a second position in which the cradle pulls the engaging means to a hidden position for releasing the cargo. - engaging means movable between an extended position in which they are able to restrain the cargo and a hidden position in which they are not able to restrain said cargo, - a cradle pivotably movable around a cradle rotation axis located at the proximity of the central portion of the cradle, the engaging means being pivotably joined to the cradle at one end of the cradle around a engaging means rotation axis, - the first elastic means extending between the other end of the cradle and the engaging means, the engaging means, the cradle and the first elastic means being configured such that when the engaging means are pivotally moved with respect to the cradle towards a hidden position, the first elastic means are compressed, - the overcenter mechanism joined to the cradle at one end of the overcenter mechanism, the engaging means, the cradle, the first elastic means and the overcenter mechanism configured such that when the engaging means receive a force over a compression threshold value of the first elastic means, the engaging means push the overcenter mechanism which moves from a first position in which the cradle maintains the engaging means in an extended position, to a second position in which the cradle pulls the engaging means to a hidden position for releasing the cargo.
An alkaline battery comprising: a positive electrode and a negative electrode contained in a battery case with a separator interposed therebetween, wherein the positive electrode contains manganese dioxide and an alkaline electrolyte, the negative electrode is a gelled negative electrode containing zinc powder, a gelling agent, and an alkaline electrolyte, and the zinc powder contains 15 % by mass or higher of fine powder with a particle size smaller than 0.074 mm (200 mesh), and 10 to 35 % by mass of coarse powder with a particle size of 0.177 to 0.841 mm (20 to 80 mesh), and has a specific surface area in the range of 0.025 to 0.080 m 2 /g. a positive electrode and a negative electrode contained in a battery case with a separator interposed therebetween, wherein the positive electrode contains manganese dioxide and an alkaline electrolyte, the negative electrode is a gelled negative electrode containing zinc powder, a gelling agent, and an alkaline electrolyte, and the zinc powder contains 15 % by mass or higher of fine powder with a particle size smaller than 0.074 mm (200 mesh), and 10 to 35 % by mass of coarse powder with a particle size of 0.177 to 0.841 mm (20 to 80 mesh), and has a specific surface area in the range of 0.025 to 0.080 m 2 /g.
Mechanical timepiece oscillator including at least one base arranged to be fixed to a bottom plate or a bridge of a timepiece movement, and at least one inertial element arranged to oscillate about a virtual pivot axis of fixed position with respect to said at least one base or of fixed position with respect to said bases when said oscillator has several, in a plane of pivoting perpendicular to said virtual pivot axis, each said inertial element being suspended to at least one said base by several flexible connections each including at least one elastic strip, and said flexible connections together defining said virtual pivot axis, wherein at least one said flexible connection includes at least one deformable compass-like member comprising a said elastic strip forming a first arm arranged, at a first end, to be fixed to a said base or integral with a said base, angularly movable, in projection onto said plane of pivoting, with respect to another said elastic strip forming a second arm of said deformable compass-like member which, at a second end, is arranged to be fixed to said inertial element, or integral with said inertial element, said first arm and said second arm being joined at a reversal edge defining a virtual apex of said deformable compass-like member, a straight line forming a compass axis joining said virtual pivot axis and the projection of said virtual apex of said deformable compass-like member onto said plane of pivoting, characterised in that, in an unstressed rest state of said oscillator, the projection of said virtual apex onto a plane defined by said virtual pivot axis and said compass axis is on a first side of said virtual pivot axis, opposite to a second side where said first end and said second end are projected.
A method for producing a colloidal crystal, comprising: a preparation step of preparing a colloidal dispersion liquid, in which colloidal particles are dispersed in a liquid comprising an ionic surfactant and a colloidal crystal can be formed due to temperature changes, and a crystallization step of preparing a colloidal crystal by changing the temperature of the colloidal dispersion liquid from a temperature region in which a colloidal crystal is not formed to a temperature region in which the colloidal crystal is formed. a preparation step of preparing a colloidal dispersion liquid, in which colloidal particles are dispersed in a liquid comprising an ionic surfactant and a colloidal crystal can be formed due to temperature changes, and a crystallization step of preparing a colloidal crystal by changing the temperature of the colloidal dispersion liquid from a temperature region in which a colloidal crystal is not formed to a temperature region in which the colloidal crystal is formed.
A tubular gripping apparatus, comprising: a housing having a bore; a plurality of gripping members movable between a gripping position and a release position; and a shield having a tubular inner body movable relative to an outer body, wherein the tubular inner body is movable between a retracted position, in which the tubular inner body is positioned above the plurality of gripping members, and an extended position, in which the inner body is at least partially positioned interiorly of the plurality of gripping members. a housing having a bore; a plurality of gripping members movable between a gripping position and a release position; and a shield having a tubular inner body movable relative to an outer body, wherein the tubular inner body is movable between a retracted position, in which the tubular inner body is positioned above the plurality of gripping members, and an extended position, in which the inner body is at least partially positioned interiorly of the plurality of gripping members.
Surgical instrument for sealing blood vessels, comprising an injection device and a dosing device, which are configured in such a way that a predetermined amount of an adhesive or an adhesive with filler can be injected into a sealing section of the blood vessel, characterized by a clamp device, which has gripping elements formed in such a way that the blood vessel can be gripped and sealed at spaced-apart sealing points (3, 4) in such a way that the sealing section of the blood vessel that can be filled with the adhesive remains between the sealing points (3, 4), and an energy-supply device which is intended for heating up and/or coagulating the sealing section and has electrodes (41, 42) between the gripping elements for passing a highfrequency current through the blood vessel, restricted to the sealing section.
A method comprising: maintaining, in a memory, a set of associations between two or more carbon monoxide sensors and two or more CO sources; determining, by processing circuitry and based on data received from a first CO sensor of the two or more CO sensors, that a first level of CO detected by the first CO sensor has exceeded a first threshold level of CO for a first threshold period of time; identifying, based on the set of associations, a first subset of CO sources associated with the first CO sensor, wherein the first subset of CO sources comprises fewer than all of the two or more CO sources; transmitting a first signal that causes the first subset of CO sources to be disabled; following the first subset of CO sources being disabled, detecting, by the first CO sensor, a second level of CO less than the first level of CO; determining, based on the second level, that at least one appliance of the first subset of CO sources was a cause of the first level of CO; transmitting a second signal that causes each of the first subset of CO sources to be reactivated one-at-a-time in order to determine which appliance of the first subset of CO sources was the cause of the first level of CO; and transmitting a third signal that causes each of the first subset of CO sources except for the determined cause of the first level of CO to be reactivated. maintaining, in a memory, a set of associations between two or more carbon monoxide sensors and two or more CO sources; determining, by processing circuitry and based on data received from a first CO sensor of the two or more CO sensors, that a first level of CO detected by the first CO sensor has exceeded a first threshold level of CO for a first threshold period of time; identifying, based on the set of associations, a first subset of CO sources associated with the first CO sensor, wherein the first subset of CO sources comprises fewer than all of the two or more CO sources; transmitting a first signal that causes the first subset of CO sources to be disabled; following the first subset of CO sources being disabled, detecting, by the first CO sensor, a second level of CO less than the first level of CO; determining, based on the second level, that at least one appliance of the first subset of CO sources was a cause of the first level of CO; transmitting a second signal that causes each of the first subset of CO sources to be reactivated one-at-a-time in order to determine which appliance of the first subset of CO sources was the cause of the first level of CO; and transmitting a third signal that causes each of the first subset of CO sources except for the determined cause of the first level of CO to be reactivated.