mhurhangee/ep-ind-claims huggingface dataset:
Working equipment for ground compacting having - an upper mass; - a guiding apparatus, coupled to the upper mass, for guiding the working equipment; - a lower mass which moves relative to the upper mass, is movably coupled to the upper mass via a spring device and has a ground-contacting plate; - a vibration exciting apparatus for generating a relative movement between the upper mass and the lower mass; and having - a drive for driving the vibration exciting apparatus; wherein - the drive comprises an electric motor; - the electric motor can be supplied with electrical energy by an electric energy store (8, 8a, 8b) disposed on the guiding apparatus; - the guiding apparatus comprises a receiver for reversable insertion of the energy store (8, 8a, 8b); - the guiding apparatus can move relative to the upper mass, and a vibration decoupling device is disposed between the upper mass and the guiding apparatus; and wherein - between the guiding apparatus and the energy store (8, 8a, 8b) a further vibration decoupling device is disposed; wherein the working equipment is either a vibration plate, and the vibration exciting apparatus is disposed on the lower mass, or wherein the working equipment is a rammer for ground compacting and the vibration exciting apparatus is disposed on the upper mass or between the upper mass and the lower mass. - an upper mass; - a guiding apparatus, coupled to the upper mass, for guiding the working equipment; - a lower mass which moves relative to the upper mass, is movably coupled to the upper mass via a spring device and has a ground-contacting plate; - a vibration exciting apparatus for generating a relative movement between the upper mass and the lower mass; and having - a drive for driving the vibration exciting apparatus; wherein - the drive comprises an electric motor; - the electric motor can be supplied with electrical energy by an electric energy store (8, 8a, 8b) disposed on the guiding apparatus; - the guiding apparatus comprises a receiver for reversable insertion of the energy store (8, 8a, 8b); - the guiding apparatus can move relative to the upper mass, and a vibration decoupling device is disposed between the upper mass and the guiding apparatus; and wherein - between the guiding apparatus and the energy store (8, 8a, 8b) a further vibration decoupling device is disposed;
An alignment device for use in the alignment of a subject, the alignment device comprising: a light source; a first convex cylindrical lens that is adapted to receive incoherent light from the light source and collimate the incoherent light to produce a low divergence light beam; a mirror rod, wherein the alignment device is adapted such that the low divergence light beam is directed to and reflected off of the mirror rod and such that the the mirror rod de-magnifies and diverges the low divergence light beam; and a second convex cylindrical lens that is adapted to receive the divergent and de-magnified light beam from the mirror rod and focus the divergent and de-magnified light beam to a convergent light beam for direction at the subject, wherein the light source is an array of incoherent light sources, the array being adapted to produce selectively a plurality of wavelengths of incoherent light or a single light source adapted to be capable of providing incoherent light in a variety of colour hues and wavelengths. a light source; a first convex cylindrical lens that is adapted to receive incoherent light from the light source and collimate the incoherent light to produce a low divergence light beam; a mirror rod, wherein the alignment device is adapted such that the low divergence light beam is directed to and reflected off of the mirror rod and such that the the mirror rod de-magnifies and diverges the low divergence light beam; and a second convex cylindrical lens that is adapted to receive the divergent and de-magnified light beam from the mirror rod and focus the divergent and de-magnified light beam to a convergent light beam for direction at the subject,
A method of obfuscating a computer program by representing the control flow of the computer program as data that is not source code, the method comprising: receiving source code of a computer program, the source code including a plurality of computing functions of the program and control flow of the program which defines the order in which the computing functions are executed; parsing the source code; extracting at least a part of the control flow of the source code; representing at least a portion of the control flow as a control flow model using a mathematical modeling language, the modeling language including constructs for event elements representing events that occur during execution of the computer program, condition elements which represent conditions that occur during the execution of the computer program and execution elements which are linked to portions of the source code for executing functions, wherein arcs are used to link event elements with condition elements and execution elements and wherein tokens are associated with condition elements and execution elements to represent the state of execution of the computer program; storing the control flow model as control flow data that represents the control flow of the program, wherein the control flow data is not executable code; and removing the at least a portion of the control flow from the source code, to thereby obfuscate the control flow of the source code and render the source code more resistant to tampering. receiving source code of a computer program, the source code including a plurality of computing functions of the program and control flow of the program which defines the order in which the computing functions are executed; parsing the source code; extracting at least a part of the control flow of the source code; representing at least a portion of the control flow as a control flow model using a mathematical modeling language, the modeling language including constructs for event elements representing events that occur during execution of the computer program, condition elements which represent conditions that occur during the execution of the computer program and execution elements which are linked to portions of the source code for executing functions, wherein arcs are used to link event elements with condition elements and execution elements and wherein tokens are associated with condition elements and execution elements to represent the state of execution of the computer program; storing the control flow model as control flow data that represents the control flow of the program, wherein the control flow data is not executable code; and removing the at least a portion of the control flow from the source code, to thereby obfuscate the control flow of the source code and render the source code more resistant to tampering.
An endoscopic forceps, comprising: a housing having a shaft affixed thereto, the shaft including first and second jaw members (710, 720) attached to a distal end thereof; an actuator operable to move at least one jaw member relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; each jaw member adapted to connect to a source of electrosurgical energy such that the jaw members are selectively capable of conducting bipolar energy through tissue held therebetween; a knife selectively moveable within a knife channel (715a, 715b) defined within at least the first jaw member to cut tissue disposed between the first and second jaw members; and a monopolar element housed within at least the first jaw member and moveable within the knife channel; wherein the first jaw member includes an aperture defined in the distal end thereof which permits selective distal translation of the monopolar element therethrough; and wherein the monopolar element is adapted to mechanically engage the knife in a removable fashion, the monopolar element being selectively movable from a first position within the first jaw member to a second position distal to the first jaw member, the monopolar element being adapted to connect to the source of electrosurgical energy and being selectively activatable independent of the jaw members. a housing having a shaft affixed thereto, the shaft including first and second jaw members (710, 720) attached to a distal end thereof; an actuator operable to move at least one jaw member relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate to grasp tissue therebetween; each jaw member adapted to connect to a source of electrosurgical energy such that the jaw members are selectively capable of conducting bipolar energy through tissue held therebetween; a knife selectively moveable within a knife channel (715a, 715b) defined within at least the first jaw member to cut tissue disposed between the first and second jaw members; and a monopolar element housed within at least the first jaw member and moveable within the knife channel; wherein the first jaw member includes an aperture defined in the distal end thereof which permits selective distal translation of the monopolar element therethrough; and wherein the monopolar element is adapted to mechanically engage the knife in a removable fashion, the monopolar element being selectively movable from a first position within the first jaw member to a second position distal to the first jaw member, the monopolar element being adapted to connect to the source of electrosurgical energy and being selectively activatable independent of the jaw members.
A building ventilation system comprising a central unit and at least one electrical operating unit for adjusting a movable member of a ventilation device, the central control unit is connected to the at least one electrical operating unit by two power supply wires and configured to provide an operating voltage for operation of the at least one electrical operating unit via the two power supply wires, characterized in that the power supply lines are connected to an end module and the central control unit further is configured to provide a test voltage being lower than the operating voltage, wherein the end module is configured to temporarily vary its load impedance with a predetermined pattern, and the central control unit is configured to detect the temporarily varying load impedance of the end module.
A fastener cartridge assembly, comprising: a cartridge body comprising a fastener cavity; a fastener removably positioned in said fastener cavity; a tissue thickness compensator releasably secured to said cartridge body; a connector, wherein said connector secures said tissue thickness compensator to said cartridge body distal to said fastener cavity; an actuator, wherein said actuator extends distally past said fastener in said fastener cavity when said actuator is in a pre-actuated position; and a firing element configured to move along a slot in said cartridge body, wherein said firing element is positioned to actuate said actuator at a position proximal of said fastener cavity, wherein said actuator is arranged to break said connector when said actuator is shifted distally to an actuated position, and wherein said firing element is arranged to then fire said fastener from said fastener cavity when said firing element moves distally along the slot. a cartridge body comprising a fastener cavity; a fastener removably positioned in said fastener cavity; a tissue thickness compensator releasably secured to said cartridge body; a connector, wherein said connector secures said tissue thickness compensator to said cartridge body distal to said fastener cavity; an actuator, wherein said actuator extends distally past said fastener in said fastener cavity when said actuator is in a pre-actuated position; and a firing element configured to move along a slot in said cartridge body, wherein said firing element is positioned to actuate said actuator at a position proximal of said fastener cavity, wherein said actuator is arranged to break said connector when said actuator is shifted distally to an actuated position, and wherein said firing element is arranged to then fire said fastener from said fastener cavity when said firing element moves distally along the slot.
An inert mixture comprising: a. from 45% to 99% by weight, with respect to the total weight of the inert mixture, of at least one polyether selected from the group consisting of polyethylene glycol, and methoxy polyethylene glycol (mPEG); and b. from 1 to 16% by weight, with respect to the total weight of the inert mixture, of at least one hydroxylated compound selected from the group consisting of: trimethylolpropane, menthol, neopentyl alcohol, and guaiacol. a. from 45% to 99% by weight, with respect to the total weight of the inert mixture, of at least one polyether selected from the group consisting of polyethylene glycol, and methoxy polyethylene glycol (mPEG); and b. from 1 to 16% by weight, with respect to the total weight of the inert mixture, of at least one hydroxylated compound selected from the group consisting of: trimethylolpropane, menthol, neopentyl alcohol, and guaiacol.
A system for measuring an electromagnetic field comprising: - an antenna arrangement comprising an antenna substrate (AB1-AB8) provided with respective antenna devices at various respective locations on the antenna substrate, an antenna device producing a signal representative of the electromagnetic field at its location on the antenna substrate; - a measurement arrangement adapted to measure a phase difference between two respective signals from two respective antenna devices at two respective locations on the antenna substrate, and adapted to measure an amplitude of a signal from an antenna device; and - a controller adapted to select at least one signal from at least one antenna device on the antenna substrate to constitute a phase reference signal, on the basis of at least one of the following criteria: the location of the antenna device and the amplitude of the signal provided by the antenna device, - the controller being further adapted to subsequently cause the measurement arrangement to measure respective phase differences between, on the one hand, respective signals from various respective antenna devices at various respective locations on the antenna substrate and, on the other hand, the at least one signal from the at least one antenna device that has been selected to constitute the phase reference signal. - an antenna arrangement comprising an antenna substrate (AB1-AB8) provided with respective antenna devices at various respective locations on the antenna substrate, an antenna device producing a signal representative of the electromagnetic field at its location on the antenna substrate; - a measurement arrangement adapted to measure a phase difference between two respective signals from two respective antenna devices at two respective locations on the antenna substrate, and adapted to measure an amplitude of a signal from an antenna device; and - a controller adapted to select at least one signal from at least one antenna device on the antenna substrate to constitute a phase reference signal, on the basis of at least one of the following criteria: the location of the antenna device and the amplitude of the signal provided by the antenna device, - the controller being further adapted to subsequently cause the measurement arrangement to measure respective phase differences between, on the one hand, respective signals from various respective antenna devices at various respective locations on the antenna substrate and, on the other hand, the at least one signal from the at least one antenna device that has been selected to constitute the phase reference signal.
A method for assaying Mina53 or NO66 activity, the method comprising contacting a peptide comprising a histidinyl residue, with a Mina53 or NO66 polypeptide and determining whether the histidinyl residue in said peptide is hydroxylated.
A method for controlling a transmission, in particular of a motor vehicle, comprising: - a heat engine driving wheels of said vehicle via a drive chain, and - at least one accessory (14, 15) taking a torque from said heat engine, in the case of a life situation with strong environmental constraints, said life situation with strong environmental constraints being defined by at least one life situation from: a situation of running at high altitude, a situation of running at very low or very high temperature, a situation of running with a discharged battery, a situation of running with an air-conditioning adjusted to the maximum, or a high current draw by electrical auxiliaries, said method comprises: - a step of offloading at least a part of the torque taken by said at least one accessory (14, 15), characterized in that this offloading step is followed: - by a step of compensating a loss of power suffered by said accessory (14, 15) during the offloading step by an increase of the power consumed by the said accessory (14, 15). - a heat engine driving wheels of said vehicle via a drive chain, and - at least one accessory (14, 15) taking a torque from said heat engine, in the case of a life situation with strong environmental constraints, said life situation with strong environmental constraints being defined by at least one life situation from: a situation of running at high altitude, a situation of running at very low or very high temperature, a situation of running with a discharged battery, a situation of running with an air-conditioning adjusted to the maximum, or a high current draw by electrical auxiliaries, said method comprises: - a step of offloading at least a part of the torque taken by said at least one accessory (14, 15), characterized in that this offloading step is followed: - by a step of compensating a loss of power suffered by said accessory (14, 15) during the offloading step by an increase of the power consumed by the said accessory (14, 15). - a step of offloading at least a part of the torque taken by said at least one accessory (14, 15), characterized in that this offloading step is followed: - by a step of compensating a loss of power suffered by said accessory (14, 15) during the offloading step by an increase of the power consumed by the said accessory (14, 15).
A tunable multiport handheld electronic device antenna, comprising: a planar radiating element having first, second, and third integral elongated portions, wherein the first elongated portion forms a ground terminal that is electrically connected to the planar radiating element; a ground plane on a printed circuit board, wherein the first, second and third integral elongated portions extend in the parallel from the planar radiating element towards the ground plane; at least first and second antenna feeds (34, 36), wherein the first antenna feed is electrically connected to the planar radiating element at a first location, the second elongated portion forms the first antenna feed, the third elongated portion forms the second antenna feed, the second antenna feed is electrically connected to the radiating element at a second location that is different from the first location, the first antenna feed and the ground terminal form a first antenna port configured to transmit and receive wireless signals, and the second antenna feed and the ground terminal form a second antenna port configured to transmit and receive wireless signals; and transceiver circuitry coupled to the first antenna feed via a first path (115, 118, 120), coupled to the second antenna feed via a second path (115, 126) and connected to the first integral elongated portion via a third path, wherein the first, second and third paths are separate from each other. a planar radiating element having first, second, and third integral elongated portions, wherein the first elongated portion forms a ground terminal that is electrically connected to the planar radiating element; a ground plane on a printed circuit board, wherein the first, second and third integral elongated portions extend in the parallel from the planar radiating element towards the ground plane; at least first and second antenna feeds (34, 36), wherein the first antenna feed is electrically connected to the planar radiating element at a first location, the second elongated portion forms the first antenna feed, the third elongated portion forms the second antenna feed, the second antenna feed is electrically connected to the radiating element at a second location that is different from the first location, the first antenna feed and the ground terminal form a first antenna port configured to transmit and receive wireless signals, and the second antenna feed and the ground terminal form a second antenna port configured to transmit and receive wireless signals; and transceiver circuitry coupled to the first antenna feed via a first path (115, 118, 120), coupled to the second antenna feed via a second path (115, 126) and connected to the first integral elongated portion via a third path, wherein the first, second and third paths are separate from each other.
A sheet processing apparatus comprising: an overlap conveying unit configured to convey two or more sheets in an overlapping manner; a stacking unit configured to stack therein the sheets conveyed in the overlapping manner; an aligning unit (41, 24, 25) configured to align ends of the sheets; and a controller configured to control the overlap conveying unit, characterized in that: the overlap conveying unit is configured to convey the sheets in one of a first condition where the topmost sheet projects from the other sheets and a second condition where the top most sheet does not project from the other sheets, based on a determination by the controller; and the controller is configured to determine whether to convey the sheets in the first condition or the second condition, according to sheet information. an overlap conveying unit configured to convey two or more sheets in an overlapping manner; a stacking unit configured to stack therein the sheets conveyed in the overlapping manner; an aligning unit (41, 24, 25) configured to align ends of the sheets; and a controller configured to control the overlap conveying unit, characterized in that: the overlap conveying unit is configured to convey the sheets in one of a first condition where the topmost sheet projects from the other sheets and a second condition where the top most sheet does not project from the other sheets, based on a determination by the controller; and the controller is configured to determine whether to convey the sheets in the first condition or the second condition, according to sheet information. the overlap conveying unit is configured to convey the sheets in one of a first condition where the topmost sheet projects from the other sheets and a second condition where the top most sheet does not project from the other sheets, based on a determination by the controller; and the controller is configured to determine whether to convey the sheets in the first condition or the second condition, according to sheet information.