mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a first light source configured to provide a signal for use in imaging tissue when the first light source is incident upon tissue, wherein the first light source comprises an optical coherence tomography light source; a second light source configured to coagulate tissue when the second light source is incident upon tissue, wherein the second light source is configured to emit energy in a range of wavelengths from 350 nm to 2200 nm; and a third light source configured to break molecular bonds of tissue when the third light source is incident upon tissue; wherein the third light source is a diode laser seeded fiber amplified source or a tunable semiconductor laser seeded fiber amplified source that is configured to emit energy in a range of wavelengths from 1800 nm to 2200 nm and in that the signal obtained from the first light source is an input into a computer processor, and wherein the computer processor provides output data used to control an orientation or position of the second light source and the third light source, wherein the diode seeded fiber amplified source or the tunable semiconductor laser seeded fiber amplified source is configured to emit energy having a pulse profile, a pulse energy, and a pulse repetition rate, wherein at least one of the pulse profile, pulse energy and pulse repetition rate can be controlled to adjust a tissue removal rate. a first light source configured to provide a signal for use in imaging tissue when the first light source is incident upon tissue, wherein the first light source comprises an optical coherence tomography light source; a second light source configured to coagulate tissue when the second light source is incident upon tissue, wherein the second light source is configured to emit energy in a range of wavelengths from 350 nm to 2200 nm; and a third light source configured to break molecular bonds of tissue when the third light source is incident upon tissue; wherein the third light source is a diode laser seeded fiber amplified source or a tunable semiconductor laser seeded fiber amplified source that is configured to emit energy in a range of wavelengths from 1800 nm to 2200 nm and in that the signal obtained from the first light source is an input into a computer processor, and wherein the computer processor provides output data used to control an orientation or position of the second light source and the third light source, wherein the diode seeded fiber amplified source or the tunable semiconductor laser seeded fiber amplified source is configured to emit energy having a pulse profile, a pulse energy, and a pulse repetition rate, wherein at least one of the pulse profile, pulse energy and pulse repetition rate can be controlled to adjust a tissue removal rate.
A flow detector for measuring a flow of a fluid comprising a housing comprising a plate and a hood having a wall and sidewalls, wherein the wall forms a first side of the housing and the plate forms at least part of a second side of the housing opposite to the first side, an inlet and an outlet for said fluid arranged in said wall of said housing, a flow channel arranged in said housing and connecting said inlet and said outlet, a sensor chip arranged at a side of said flow channel and adapted to measure said flow in said flow channel, electrical connectors connected to said sensor chip for connecting said flow detector to an external system, characterized by said connectors extending from the second side of said housing, and a plurality of tongues, in addition to said connectors, extending from the second side of said housing for mechanically mounting said housing to a support.
A cell phone device with a hidden suspended microphone component, comprising: - a cell phone main body; - a rotating component is arranged on the cell phone main body, wherein the rotating component is configured as a flip shaft and the cell phone device is a flip over cell phone; - a microphone pickup hole is arranged on the cell phone main body; - within the cell phone main body, there is a microphone component in a position corresponding to the microphone pickup hole used to pick up external sounds; - the microphone pickup hole is arranged on the cell phone main body's inner wall at a place where the cell phone main body is engaged with the rotating component, and said microphone pickup hole is shielded by said rotating component, characterized in that - an activity clearance is located between the flip shaft and the cell phone main body of between 0.3 and 1.0 mm and - the flip shaft comprises a protruding platform covering the microphone pickup hole. - a cell phone main body; - a rotating component is arranged on the cell phone main body, wherein the rotating component is configured as a flip shaft and the cell phone device is a flip over cell phone; - a microphone pickup hole is arranged on the cell phone main body; - within the cell phone main body, there is a microphone component in a position corresponding to the microphone pickup hole used to pick up external sounds; - the microphone pickup hole is arranged on the cell phone main body's inner wall at a place where the cell phone main body is engaged with the rotating component, and said microphone pickup hole is shielded by said rotating component, - an activity clearance is located between the flip shaft and the cell phone main body of between 0.3 and 1.0 mm and - the flip shaft comprises a protruding platform covering the microphone pickup hole.
A method for detecting a faulty drive belt 2. of a motor system comprising a rotational heat exchanger, the rotational heat exchanger being coupled to a rotor of a motor by a drive belt, such that rotation of the rotor causes rotation of the rotational heat exchanger, the motor being connected to a processing unit, characterized by comprising the step of measuring regularly in intervals every 5 to 60 seconds a step response of acceleration of the motor after having applied a sudden increase of motor current request and in that the processing unit is provided with sensorless Field-Oriented-Control controlling motor.
Workpiece carrier for conveying objects, in particular vehicle bodies, in systems for the thermal treatment of said objects, said workpiece carrier having at least two bearing rails, characterized in that the bearing rails are at least partially formed from a material having cellular structures (34; 36), wherein the material having cellular structures is a metal foam and/or a plastics foam and/or a ceramics foam.
A removable adapter for external air and fuel intake and mixing in an internal combustion fixing tool, comprising a combustion chamber, arranged to be mounted in the tool, to be connected to a fuel cartridge and to receive fuel and communicate with the combustion chamber so as to inject a mixture of external air and fuel therein.
A dry powder medicament delivery device comprising: a medicament container containing a unit dose of dry powder medicament; a medicament dispensing assembly; and optionally an air source; said medicament container comprising an elongate member provided with an inset cavity which acts as a medicament reservoir and the container providing a non-linear pathway for the flow of the powdered medicament; characterized in that the medicament container comprises a slidable closure sleeve capable of sliding to either close or to reveal some or the entire cavity. a medicament container containing a unit dose of dry powder medicament; a medicament dispensing assembly; and optionally an air source; said medicament container comprising an elongate member provided with an inset cavity which acts as a medicament reservoir and the container providing a non-linear pathway for the flow of the powdered medicament; characterized in that the medicament container comprises a slidable closure sleeve capable of sliding to either close or to reveal some or the entire cavity.
An electric power supply system comprising: a power bus configured to provide DC power, and a control unit for a source of power being supplied to said power bus, said control unit including a damping algorithm to provide damping to power supplied on the power bus; and a motor, and a motor control including a compensation block configured to tap power from said power bus, and identify a portion of a supplied signal due to said damping, said compensation block configured to provide a compensation signal that compensates for the damping on the power bus prior to the power being supplied to said motor; characterized in that said portion of a supplied signal is a voltage modulation signal, in that said compensation signal is a frequency modulation signal, and in that said frequency modulation signal extends to a first summation block along with a speed signal, and a resulting control signal passes downstream to an inverter for controlling said motor via a second summation block positioned downstream of said first summation block, said inverter also configured to receive power from said power bus; wherein a feedback signal returns a feedback of a power supply being sent by the inverter to said motor to the second summation block; wherein a gain and compensation block is configured to convert an identified voltage modulation signal to said frequency modulation at a correct phase relationship to a voltage compensation on the power bus. a power bus configured to provide DC power, and a control unit for a source of power being supplied to said power bus, said control unit including a damping algorithm to provide damping to power supplied on the power bus; and a motor, and a motor control including a compensation block configured to tap power from said power bus, and identify a portion of a supplied signal due to said damping, said compensation block configured to provide a compensation signal that compensates for the damping on the power bus prior to the power being supplied to said motor; characterized in that said portion of a supplied signal is a voltage modulation signal, in that said compensation signal is a frequency modulation signal, and in that said frequency modulation signal extends to a first summation block along with a speed signal, and a resulting control signal passes downstream to an inverter for controlling said motor via a second summation block positioned downstream of said first summation block, said inverter also configured to receive power from said power bus; wherein a feedback signal returns a feedback of a power supply being sent by the inverter to said motor to the second summation block; wherein a gain and compensation block is configured to convert an identified voltage modulation signal to said frequency modulation at a correct phase relationship to a voltage compensation on the power bus.
A transducer support mounting (16a, 16b) for an ultrasonic flow meter, the support mounting being configured, in use, to space a transducer (17a, 17b) from an inner periphery of a fluid conduit of an ultrasonic flow meter, wherein the support mounting includes a housing for housing an ultrasonic transducer (17a, 17b) and a plurality of radially extending webs, branches or ribs (21a, 21b, 21c, 21d) provided around said housing; and a flow stabiliser (15a, 15b) connected to the support mounting, wherein the flow stabilizer includes a fluid deflecting element arranged to deflect fluid around an ultrasonic transducer supported by the housing, wherein the flow stabilizer is formed substantially as a dome, and wherein the flow stabiliser includes a fluid drain passage at an apex of the dome.
A method executable by a client device to process a received media program made up of a series of segments selected from a plurality of media streams having different video qualities, the method comprising: requesting and receiving, via a network, a first segment of the video program from a first media stream having a first quality from a server, wherein the first segment received from the server is encoded with predictive data describing a bandwidth consumption of a future segment of the same media program, wherein the predictive data contains a numerical representation that describes the bandwidth consumption of a future segment, wherein the predictive data contains a first value representing a size of a future segment; rendering the first segment of the video program for playback to a viewer; and selecting the future segment of the video program based at least in part upon the predictive data encoded with the previously received first segment, wherein the selecting comprises selecting the future segment from a lower quality media stream of the same media program if the predictive data indicates that the bandwidth consumption of the future segment of the same media program will exceed the amount of bandwidth that is available to the client device. requesting and receiving, via a network, a first segment of the video program from a first media stream having a first quality from a server, wherein the first segment received from the server is encoded with predictive data describing a bandwidth consumption of a future segment of the same media program, wherein the predictive data contains a numerical representation that describes the bandwidth consumption of a future segment, wherein the predictive data contains a first value representing a size of a future segment; rendering the first segment of the video program for playback to a viewer; and selecting the future segment of the video program based at least in part upon the predictive data encoded with the previously received first segment, wherein the selecting comprises selecting the future segment from a lower quality media stream of the same media program if the predictive data indicates that the bandwidth consumption of the future segment of the same media program will exceed the amount of bandwidth that is available to the client device.
A joint assembly comprising a first gas turbine engine casing and a second gas turbine casing arranged end to end, the first gas turbine engine casing having a plurality of circumferentially spaced attachment points and the second gas turbine casing having a plurality of circumferentially spaced attachment points for securing the first gas turbine casing and the second gas turbine casing together in an end to end relationship, characterised in that each attachment point on the first gas turbine casing is circumferentially offset from a respective attachment point on the second gas turbine casing, and connected by a flexure member (30, 60, 70) that permits limited relative movement of the attachment point on the first gas turbine engine casing and its respective attachment point on the second gas turbine casing.
Accessory relay box (10, 110, 210) for a turbomachine having a front lateral face (16, 116, 216), a rear lateral face (18, 118, 218) opposite the front face laterally delimiting the accessory box in which is mounted at least one gear train composed of several gear wheels meshing together, each gear wheel being carried by a central shaft, each shaft being guided in rotation by rolling bearings, characterized in that all the rolling bearings are carried by a same support (12, 112, 212) inserted laterally between the front (16, 116, 216) and rear (18, 118, 218) faces.
A dishwashing paste composition, comprising: from 20 wt.% to 50 wt. % of an abrasive; a pH modifying agent in an amount effective to provide a pH greater than 7; from 1 wt.% to 10 wt.% of a structuring agent; and from 0.1 wt.% to 5 wt.% of a source of polyvalent cations comprising an alkaline earth metal salt selected from magnesium chloride, calcium chloride, and a combination thereof; wherein the dishwashing paste composition has a penetrability of less than 8 mm after 3 days; and wherein the dishwashing paste composition maintains a penetrability of greater than 3 mm after 90 days. from 20 wt.% to 50 wt. % of an abrasive; a pH modifying agent in an amount effective to provide a pH greater than 7; from 1 wt.% to 10 wt.% of a structuring agent; and from 0.1 wt.% to 5 wt.% of a source of polyvalent cations comprising an alkaline earth metal salt selected from magnesium chloride, calcium chloride, and a combination thereof; wherein the dishwashing paste composition has a penetrability of less than 8 mm after 3 days; and wherein the dishwashing paste composition maintains a penetrability of greater than 3 mm after 90 days.
Method for the operation of a network management system comprising nodes (A, M) which are used as manager and/or agent nodes, in which at least one node (A, M) communicates with at least one other node (A, M) by using a peer-to-peer protocol, characterised in that method steps are performed on said at least one node (A, M) by means of a layer model, in which • method steps specific to at least one peer-to-peer protocol (P2P PROTOCOL 1, P2P PROTOCOL 2, P2P PROTOCOL ABSTRACTION) are performed via a first layer, • network management-specific method steps (GENERIC MANAGEMENT FUNCTIONS) are performed via a second layer, • method steps specific to at least one peer-to-peer protocol and network management-specific method steps (P2P MANAGEMENT BASIC FUNCTIONS, P2P MANAGEMENT ADVANCED FUNCTIONS) are performed via a third layer. • method steps specific to at least one peer-to-peer protocol (P2P PROTOCOL 1, P2P PROTOCOL 2, P2P PROTOCOL ABSTRACTION) are performed via a first layer, • network management-specific method steps (GENERIC MANAGEMENT FUNCTIONS) are performed via a second layer, • method steps specific to at least one peer-to-peer protocol and network management-specific method steps (P2P MANAGEMENT BASIC FUNCTIONS, P2P MANAGEMENT ADVANCED FUNCTIONS) are performed via a third layer.
A device for monitoring, in particular for regulating, a cutting process on a workpiece, comprising: a focusing element for focusing a high-energy beam, in particular a laser beam, onto the workpiece, an image capture apparatus for capturing a region at the workpiece to be monitored, said region comprising an interaction region of the high-energy beam with the workpiece, and an evaluation apparatus embodied to determine at least one characteristic variable (α) of the cutting process, in particular of a kerf formed during the cutting process, on the basis of the captured interaction region, wherein the image capture apparatus is embodied to form an observation beam for observing the interaction region from an observation direction extending at an angle (β) to the beam axis of the high-energy beam and wherein the image capture apparatus comprises imaging optics for generating an image of the interaction region from the observation direction extending at the angle (β) to the beam axis of the high-energy beam, characterized in that the device comprises a control apparatus embodied to modify, during the cutting process, the alignment of the observation direction (R1, R2,...) in a plane (X, Y) perpendicular to the beam axis of the high-energy beam in a manner dependent on an advance direction (v) of the cutting process. a focusing element for focusing a high-energy beam, in particular a laser beam, onto the workpiece, an image capture apparatus for capturing a region at the workpiece to be monitored, said region comprising an interaction region of the high-energy beam with the workpiece, and an evaluation apparatus embodied to determine at least one characteristic variable (α) of the cutting process, in particular of a kerf formed during the cutting process, on the basis of the captured interaction region, wherein the image capture apparatus is embodied to form an observation beam for observing the interaction region from an observation direction extending at an angle (β) to the beam axis of the high-energy beam and wherein the image capture apparatus comprises imaging optics for generating an image of the interaction region from the observation direction extending at the angle (β) to the beam axis of the high-energy beam, characterized in that the device comprises a control apparatus embodied to modify, during the cutting process, the alignment of the observation direction (R1, R2,...) in a plane (X, Y) perpendicular to the beam axis of the high-energy beam in a manner dependent on an advance direction (v) of the cutting process.
Polyvinyl acetal fine particles for an aqueous dispersion, adapted for use as dispersoids in an aqueous dispersion, the polyvinyl acetal fine particles including a polyvinyl acetal resin with an ionic functional group, and having a volume average particle size of 10 nm to 100 μm, and a CV value of a volume-based particle size distribution of at most 40%, wherein the ionic functional group is at least one functional group selected from the group consisting of sulfinic acid, sulfenic acid, phosphate, and phosphonic acid groups, and salts thereof or the polyvinyl acetal resin comprises a structure unit represented by the following formula: wherein C is the carbon atom in the polymer main chain, R 1 is a hydrogen atom, R 2 is a methylene group, R 3 is a sulfonic acid group or a salt of a sulfonic acid group, wherein the polyvinyl acetal resin has an ionic functional group content of 0.01 to 1 mmol/g.
A multi-aperture vacuum tool comprising: a distributed vacuum tool portion (110, 102, 150), the distributed vacuum tool portion (110, 102, 150) comprised of a plate having a plurality of apertures that extend through an interior plate surface and an exterior plate surface, wherein air is able to pass through the plurality of apertures from the exterior plate surface towards the interior plate surface when the distributed vacuum tool portion (110, 102, 150) is activated; and a refined vacuum tool portion, the refined vacuum tool being physically coupled to the distributed vacuum tool (110, 102, 150); characterized in that: the distributed vacuum tool portion (110, 102, 150) comprises at least one vacuum distributor which, in combination with the plate, defines a volume of space forming a vacuum distribution cavity; the at least one vacuum distributor has an interior top surface and interior side surfaces, an obtuse angle being formed between the interior top surface and the interior side surfaces; the interior side surfaces extend from the interior top surface toward the plate; and the interior top surface comprises a vacuum aperture. the distributed vacuum tool portion (110, 102, 150) comprises at least one vacuum distributor which, in combination with the plate, defines a volume of space forming a vacuum distribution cavity; the at least one vacuum distributor has an interior top surface and interior side surfaces, an obtuse angle being formed between the interior top surface and the interior side surfaces; the interior side surfaces extend from the interior top surface toward the plate; and the interior top surface comprises a vacuum aperture.
A pole cap for the pressure-tight closure of a pressure vessel, wherein the pole cap comprises an inner face for the future closure of the pressure vessel, an outer face for winding of a fiber composite material thereon after closure of the pressure vessel and a neck-shaped open duct which protrudes outward from the outer face and has an inner contour, each made of plastic material, and comprises a pressure port element connected to the duct for the closure of the duct, wherein the pressure port element comprises a seal cone made of metal with a first section protruding outward through the duct and with a second section tapering at least in the area of the duct in a cone-shaped manner in the direction of the first section, which is held in the inner contour by a fixing means arranged on the first section from the outside in a pressure-tight press fit, wherein the inner contour tapers outward along the duct at least in an area of the duct in a cone-shaped manner, wherein the cone-shaped inner contour is adapted accurately to the cone-shaped second section; characterized in that the cone-shaped inner contour of the duct extends from the inner face to the neck end on the outer face.