mhurhangee/ep-ind-claims huggingface dataset:
Lock device comprising a lock housing which houses: - a lock bolt which is movable between an unlocked position and a locked position, - a first follower, - a second follower, - a blocking member which is coupled to the first and to the second follower and which, by means of each of the first and second follower, can be manoeuvred between a blocking position, in which the lock bolt is blocked in its locked position, and a release position, in which the lock bolt is movable to the unlocked position, - a latch device which is adjustable between a latching state, in which manoeuvring of the blocking member by means of the second follower from the blocking position to the release position is blocked, and a non-latching state, in which manoeuvring of the blocking member by means of the second follower from the blocking position to the release position is permitted, wherein the latch device is arranged such that, when the lock bolt is located in its locked position and the latch device has adopted its latching state, by mechanical cooperation with the lock bolt, the latch device is blocked against being adjusted from its latching state to its non-latching state. - a lock bolt which is movable between an unlocked position and a locked position, - a first follower, - a second follower, - a blocking member which is coupled to the first and to the second follower and which, by means of each of the first and second follower, can be manoeuvred between a blocking position, in which the lock bolt is blocked in its locked position, and a release position, in which the lock bolt is movable to the unlocked position, - a latch device which is adjustable between a latching state, in which manoeuvring of the blocking member by means of the second follower from the blocking position to the release position is blocked, and a non-latching state, in which manoeuvring of the blocking member by means of the second follower from the blocking position to the release position is permitted,
Particle detector comprising means (1, 2, 3) of delivering electrical pulses starting from detected particles, one electrical pulse being delivered for one detected particle, and means of counting the delivered electrical pulses, characterized in that it comprises means (7, 9) capable of receiving and transmitting electrical pulses originating from at least one second particle detector to the counting means, and means (7, 9) capable of transmitting the electrical pulses that it delivers and the electrical pulses that it receives from the said second particle detector to counting means of a third particle detector, the means (7, 9) capable of receiving and transmitting electrical pulses originating from at least one second particle detector to the counting means and the means (7, 9) capable of transmitting electrical pulses that it delivers and electrical pulses that it receives from the said second particle detector to a third particle detector including an "OR" gate with a first input to which electrical pulses delivered by the particle detector are applied, at least one additional input to which electrical pulses delivered by the second particle detector are applied, and an output connected firstly to an input of the counting means and secondly to an input of an "OR" gate of the counting means of the third particle detector.
A method for setting up a radio front haul link by a serving base station, BS, in a cooperative communication system, the method comprising: receiving a measurement result report message including a measurement result for each of the serving BS and neighbor BSs from a mobile station, MS; determining at least one neighbor BS with which the serving BS will set up a radio front haul link according to the measurement result for each of the serving BS and the neighbor BSs; performing a radio front haul link set up operation with the at least one neighbor BS; if the at least one neighbor BS is a cooperative cell member BS included in a cooperative cell managed by the serving BS, performing a cooperative cell member update operation with the at least one neighbor BS. receiving a measurement result report message including a measurement result for each of the serving BS and neighbor BSs from a mobile station, MS; determining at least one neighbor BS with which the serving BS will set up a radio front haul link according to the measurement result for each of the serving BS and the neighbor BSs; performing a radio front haul link set up operation with the at least one neighbor BS; if the at least one neighbor BS is a cooperative cell member BS included in a cooperative cell managed by the serving BS, performing a cooperative cell member update operation with the at least one neighbor BS.
A method of producing an electrical feedthrough (200: 400) assembly for an implantable medical device, the method comprising: providing an outer ferrule of metallic material with an outer surface adapted to be sealed to an implantable device housing; producing an inner feedthrough assembly including: i. providing, by a 3D printing process, ceramic insulator material to form an electrical insulator, ii. providing, by the 3D printing process, one or more electrically conductive vias of metallized conductive material embedded within and extending through the electrical insulator, and iii. sintering the ceramic insulator material and the one or more electrically conductive layers to form a hermetic boundary that includes a transition interface region around each of the conductive vias comprising a gradient mixture of the ceramic insulator material and the metallized conductive material forming a gradual transition and a mechanical bond between the electrical insulator and the conductive via; locating the inner feedthrough assembly within the outer ferrule; and forming a hermetic seal between the inner feedthrough assembly and the outer ferrule. providing an outer ferrule of metallic material with an outer surface adapted to be sealed to an implantable device housing; producing an inner feedthrough assembly including: i. providing, by a 3D printing process, ceramic insulator material to form an electrical insulator, ii. providing, by the 3D printing process, one or more electrically conductive vias of metallized conductive material embedded within and extending through the electrical insulator, and iii. sintering the ceramic insulator material and the one or more electrically conductive layers to form a hermetic boundary that includes a transition interface region around each of the conductive vias comprising a gradient mixture of the ceramic insulator material and the metallized conductive material forming a gradual transition and a mechanical bond between the electrical insulator and the conductive via; i. providing, by a 3D printing process, ceramic insulator material to form an electrical insulator, ii. providing, by the 3D printing process, one or more electrically conductive vias of metallized conductive material embedded within and extending through the electrical insulator, and iii. sintering the ceramic insulator material and the one or more electrically conductive layers to form a hermetic boundary that includes a transition interface region around each of the conductive vias comprising a gradient mixture of the ceramic insulator material and the metallized conductive material forming a gradual transition and a mechanical bond between the electrical insulator and the conductive via; locating the inner feedthrough assembly within the outer ferrule; and forming a hermetic seal between the inner feedthrough assembly and the outer ferrule.
A synthetic polyisoprene latex comprising synthetic polyisoprene, wherein the synthetic polyisoprene constituting the synthetic polyisoprene latex comprises a low-molecular weight synthetic isoprene chain having a weight average molecular weight determined by gel permeation chromatography analysis of less than 1,000,000 at a content rate of 10 to 70% by weight and a high-molecular weight synthetic isoprene chain having a weight average molecular weight determined by gel permeation chromatography analysis of 1,000,000 or more at a content rate of 30 to 90% by weight, wherein the synthetic polyisoprene constituting the synthetic polyisoprene latex has a molecular weight distribution curve determined by gel permeation chromatography analysis that is bimodal with two local maximum points of a local maximum point with respect to the low-molecular weight synthetic isoprene chain and a local maximum point with respect to the high-molecular weight synthetic isoprene chain being present, the weight average molecular weight with respect to the low-molecular weight synthetic isoprene chain determined by gel permeation chromatography analysis is 100,000 to 1,000,000, and the weight average molecular weight with respect to the high-molecular weight synthetic isoprene chain determined by gel permeation chromatography analysis is 3,000,000 to 6,000,000. the synthetic polyisoprene constituting the synthetic polyisoprene latex comprises a low-molecular weight synthetic isoprene chain having a weight average molecular weight determined by gel permeation chromatography analysis of less than 1,000,000 at a content rate of 10 to 70% by weight and a high-molecular weight synthetic isoprene chain having a weight average molecular weight determined by gel permeation chromatography analysis of 1,000,000 or more at a content rate of 30 to 90% by weight, wherein the synthetic polyisoprene constituting the synthetic polyisoprene latex has a molecular weight distribution curve determined by gel permeation chromatography analysis that is bimodal with two local maximum points of a local maximum point with respect to the low-molecular weight synthetic isoprene chain and a local maximum point with respect to the high-molecular weight synthetic isoprene chain being present, the weight average molecular weight with respect to the low-molecular weight synthetic isoprene chain determined by gel permeation chromatography analysis is 100,000 to 1,000,000, and the weight average molecular weight with respect to the high-molecular weight synthetic isoprene chain determined by gel permeation chromatography analysis is 3,000,000 to 6,000,000.
A method of clearing fluid from a plate (135, 235, 235', 235", 335) having a bulk bounded by a first surface, a second surface opposite to the first surface, and a first edge (260a, 360a) and a second edge (260b, 260b') opposite the first edge (260a, 360a), both edges extending between the first and second surfaces, the method comprising: generating ultrasonic waves in the plate (135, 235, 235', 235", 335) using one or more ultrasonic transducers (100, 200, 300a-c) coupled to the plate (135, 235, 235', 235", 335) relatively close to the first edge (260a, 360a) and relatively far away from the second edge (260b, 260b') such that the generated ultrasonic waves propagate in the plate in a main propagation direction towards the second edge (260b, 260b') for ultrasonically clearing droplets of fluid from the plate (135, 235, 235', 235", 335); controlling the propagation of ultrasonic waves in the plate to achieve a predetermined amount of ultrasonic wave energy propagating in a direction opposite to the main propagation direction by disposing one or more predetermined structure in the path of propagation of said ultrasonic waves, characterized in that the one or more predetermined structure comprises at least one absorbing structure being disposed near the second edge (260b, 260b'), wherein the absorbing structure is reducing an amount of reflected ultrasonic wave energy propagating in a direction opposite to the main propagation direction as compared to an amount of reflected ultrasonic wave energy that would propagate in the absence of the at least one absorbing structure. generating ultrasonic waves in the plate (135, 235, 235', 235", 335) using one or more ultrasonic transducers (100, 200, 300a-c) coupled to the plate (135, 235, 235', 235", 335) relatively close to the first edge (260a, 360a) and relatively far away from the second edge (260b, 260b') such that the generated ultrasonic waves propagate in the plate in a main propagation direction towards the second edge (260b, 260b') for ultrasonically clearing droplets of fluid from the plate (135, 235, 235', 235", 335); controlling the propagation of ultrasonic waves in the plate to achieve a predetermined amount of ultrasonic wave energy propagating in a direction opposite to the main propagation direction by disposing one or more predetermined structure in the path of propagation of said ultrasonic waves, characterized in that the one or more predetermined structure comprises at least one absorbing structure being disposed near the second edge (260b, 260b'), wherein the absorbing structure is reducing an amount of reflected ultrasonic wave energy propagating in a direction opposite to the main propagation direction as compared to an amount of reflected ultrasonic wave energy that would propagate in the absence of the at least one absorbing structure.
A conditioning system for a filter module, comprising: an inlet fluidly connectable to a source of ultrapure water; a heat exchanger lined with a first corrosion resistant material positioned downstream from the inlet; a magnetically levitated pump in fluid communication with the heat exchanger; an outlet positioned downstream from the magnetically levitated pump and fluidly connectable to the filter module; a channel lined with a second corrosion resistant material constructed and arranged to bypass the heat exchanger; a controller configured to selectively direct water to the heat exchanger or to the channel, the controller being programmable to act responsive to at least one of a concentration of total organic carbon in the source of ultrapure water and a concentration of TOC in water at the outlet; and a base supporting the heat exchanger, the magnetically levitated pump, the channel, and the controller; and, an inlet sensor configured to detect the concentration of TOC in the source of ultrapure water and an outlet sensor configured to detect the concentration of TOC in the ultrapure water at the outlet, wherein at least one of the inlet sensor and the outlet sensor is electrically connected to the controller. an inlet fluidly connectable to a source of ultrapure water; a heat exchanger lined with a first corrosion resistant material positioned downstream from the inlet; a magnetically levitated pump in fluid communication with the heat exchanger; an outlet positioned downstream from the magnetically levitated pump and fluidly connectable to the filter module; a channel lined with a second corrosion resistant material constructed and arranged to bypass the heat exchanger; a controller configured to selectively direct water to the heat exchanger or to the channel, the controller being programmable to act responsive to at least one of a concentration of total organic carbon in the source of ultrapure water and a concentration of TOC in water at the outlet; and a base supporting the heat exchanger, the magnetically levitated pump, the channel, and the controller; and,
An engine assembly comprising: an engine core including an internal combustion engine having an exhaust port; a turbine module including a turbine casing containing a turbine (22, 26), a support casing rigidly connecting the turbine casing to at least the engine core, and an inlet scroll connected to the turbine casing, the inlet scroll including an inlet pipe in fluid communication with an inlet of the turbine (22, 26); and an exhaust pipe connected to and providing fluid communication between the exhaust port and the inlet pipe; wherein the inlet scroll is connected to the turbine casing without any direct rigid connection to the support casing; and the exhaust pipe is movable relative to at least one of the exhaust port and the inlet pipe at a corresponding connection (68a, 68b) therewith; characterised in that: one of the exhaust and inlet pipes (68, 82) floatingly extends through a corresponding opening defined in the support casing such that one of the exhaust and inlet pipes (68, 82) is free to move within the corresponding opening. an engine core including an internal combustion engine having an exhaust port; a turbine module including a turbine casing containing a turbine (22, 26), a support casing rigidly connecting the turbine casing to at least the engine core, and an inlet scroll connected to the turbine casing, the inlet scroll including an inlet pipe in fluid communication with an inlet of the turbine (22, 26); and an exhaust pipe connected to and providing fluid communication between the exhaust port and the inlet pipe; wherein the inlet scroll is connected to the turbine casing without any direct rigid connection to the support casing; and the exhaust pipe is movable relative to at least one of the exhaust port and the inlet pipe at a corresponding connection (68a, 68b) therewith; characterised in that: one of the exhaust and inlet pipes (68, 82) floatingly extends through a corresponding opening defined in the support casing such that one of the exhaust and inlet pipes (68, 82) is free to move within the corresponding opening.
A hand held power tool comprising: a motor housing in which a rotor of a motor defines an axial direction (A-A); a torque multiplier unit extending in the axial direction (A-A), the hand held power tool further comprising: an extension unit arranged to extend in the axial direction (A-A) characterised in that the extension unit is attached between the motor housing at a front end thereof and the torque multiplier unit at a back end thereof, and in that the extension unit drivingly connects the rotor to an input axis of the torque multiplier unit. a motor housing in which a rotor of a motor defines an axial direction (A-A); a torque multiplier unit extending in the axial direction (A-A), the hand held power tool further comprising: an extension unit arranged to extend in the axial direction (A-A) characterised in that the extension unit is attached between the motor housing at a front end thereof and the torque multiplier unit at a back end thereof, and in that the extension unit drivingly connects the rotor to an input axis of the torque multiplier unit.
A security device, comprising: an array of focusing elements, each focusing element being adapted to focus light in at least a first direction, the focusing elements being arranged on a regular grid in at least one dimension; and an array of image elements overlapping the array of focussing elements, the image elements being arranged based on a repeating unit cell defining image element positions, the periodicity of the unit cells being substantially the same as that of the grid on which the array of focusing elements is arranged, the unit cell defining a set of image element positions therewithin, each image element position within the unit cell being assigned to carry an image element of a respective corresponding image; whereby, depending on the viewing angle, the array of focusing elements directs light from selected image element positions to the viewer, such that as the device is tilted different ones of the respective images are displayed by the image elements at the selected image element positions in combination, sequentially; wherein a centre area of each unit cell, comprising one or more image element positions, is assigned to carry image element(s) of a corresponding centre image, the centre area being larger than each outer area of the unit cell, the outer areas being located outside the centre area and assigned to carry image element(s) (A-F) of other respective images, characterised in that the range of viewing angles over which the centre image is displayed to a viewer is greater than the range of viewing angles over which each other image is displayed. an array of focusing elements, each focusing element being adapted to focus light in at least a first direction, the focusing elements being arranged on a regular grid in at least one dimension; and an array of image elements overlapping the array of focussing elements, the image elements being arranged based on a repeating unit cell defining image element positions, the periodicity of the unit cells being substantially the same as that of the grid on which the array of focusing elements is arranged, the unit cell defining a set of image element positions therewithin, each image element position within the unit cell being assigned to carry an image element of a respective corresponding image; whereby, depending on the viewing angle, the array of focusing elements directs light from selected image element positions to the viewer, such that as the device is tilted different ones of the respective images are displayed by the image elements at the selected image element positions in combination, sequentially; wherein a centre area of each unit cell, comprising one or more image element positions, is assigned to carry image element(s) of a corresponding centre image, the centre area being larger than each outer area of the unit cell, the outer areas being located outside the centre area and assigned to carry image element(s) (A-F) of other respective images, characterised in that the range of viewing angles over which the centre image is displayed to a viewer is greater than the range of viewing angles over which each other image is displayed.
A method for isolating a stem cell population for the development of a clinical treatment, the method comprising: isolating a stem cell population that is CD34+/CD45RA-/CD90+; wherein the isolating does not utilize CD38 or CD49f, and wherein the isolating does not utilize markers other than CD34, CD45RA, CD90, CD117, CD123, and/or CD133.
An ultrasonic probe comprising: an ultrasonic transducer array comprising a plurality of ultrasonic transducer elements; and a backing layer acoustically connected to the ultrasonic transducer array, comprising a plurality of backing elements, which are configured to be arranged in a two-dimensional manner, characterized in that each backing element comprises: a member having a shape of a hexagonal column acoustically connected to the plurality of ultrasonic transducer elements; two conductive traces disposed diametrically opposed at two side surfaces of the member; and wherein one of the two conductive traces is electrically connected to one of the plurality of ultrasonic transducer elements and the other one of the two conductive traces is electrically connected to another one of the plurality of ultrasonic transducer elements. an ultrasonic transducer array comprising a plurality of ultrasonic transducer elements; and a backing layer acoustically connected to the ultrasonic transducer array, comprising a plurality of backing elements, which are configured to be arranged in a two-dimensional manner, characterized in that each backing element comprises: a member having a shape of a hexagonal column acoustically connected to the plurality of ultrasonic transducer elements; two conductive traces disposed diametrically opposed at two side surfaces of the member; and wherein one of the two conductive traces is electrically connected to one of the plurality of ultrasonic transducer elements and the other one of the two conductive traces is electrically connected to another one of the plurality of ultrasonic transducer elements. a member having a shape of a hexagonal column acoustically connected to the plurality of ultrasonic transducer elements; two conductive traces disposed diametrically opposed at two side surfaces of the member; and wherein one of the two conductive traces is electrically connected to one of the plurality of ultrasonic transducer elements and the other one of the two conductive traces is electrically connected to another one of the plurality of ultrasonic transducer elements.