mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for the curing of thermosetting resins at room temperature, wherein said composition comprises: a) an organophosphine metal complex; b) a tertiary amine; c) a peroxide initiator; d) optionally a transition metal salt essentially free of cobalt; and e) optionally a quaternary ammonium or phosphonium salt. a) an organophosphine metal complex; b) a tertiary amine; c) a peroxide initiator; d) optionally a transition metal salt essentially free of cobalt; and e) optionally a quaternary ammonium or phosphonium salt.
An ophthalmic device (100, 200, 300-A, 300-B, 400), comprising: an enclosure configured to mount in or on an eye , wherein the enclosure includes a first material and a second material disposed within the first material, wherein the first material is different from the second material; an electromyography, "EMG", sensor adapted to measure electrical activity of a muscle of the eye proximate to a first annular region of the ophthalmic device when the ophthalmic device is mounted in or on the eye, wherein the EMG sensor includes a first electrode and a second electrode , each positioned within the first annular region between the first material and at least a portion of the second material; and a controller coupled to the EMG sensor, wherein the controller stores instructions that when executed by the controller causes the ophthalmic device to perform operations including: acquiring a first signal representative of the electrical activity of the muscle by measuring the electrical activity with the EMG sensor. an enclosure configured to mount in or on an eye , wherein the enclosure includes a first material and a second material disposed within the first material, wherein the first material is different from the second material; an electromyography, "EMG", sensor adapted to measure electrical activity of a muscle of the eye proximate to a first annular region of the ophthalmic device when the ophthalmic device is mounted in or on the eye, wherein the EMG sensor includes a first electrode and a second electrode , each positioned within the first annular region between the first material and at least a portion of the second material; and a controller coupled to the EMG sensor, wherein the controller stores instructions that when executed by the controller causes the ophthalmic device to perform operations including: acquiring a first signal representative of the electrical activity of the muscle by measuring the electrical activity with the EMG sensor.
A binder composition for agglomerating iron ore fines comprising: one or more types of modified starch and one or more types of synthetic dry polymer; wherein the modified starch is in the form of particles where at least 90% by weight of the individual starch particles are in the range of about 50 to about 250 microns; wherein the synthetic dry polymer is anionic or has a net anionic charge; and wherein the synthetic dry polymer is in the form of particles where at least about 80% by weight of the individual polymer particles are in the range of about 50 to about 800 microns.
A sampling mechanism, especially for bulk materials, having a rigid base connected by at least two rockers to an arm , at the free end of which the probe is pivotally connected; wherein the rockers are pivotally connected to a base and the arm, wherein the arm is in the form of a rigid beam of constant length and wherein the first rocker is mounted at the end of the arm and the second rocker is attached to the arm , characterized in that the length (e) of a boom portion of the arm corresponding to the section between the attachment point of the second rocker and the attachment point of the probe is at least 2.5 times greater than the distance (c) between the points of attachment of the first and second rockers to the arm ; and, furthermore, the quotient of the distance (h) of the point of attachment of the probe from the line (K) defined by the points of attachment of the first and second rockers to the arm and the length (a) of the section determined by the points of attachment of the first and second rockers to the base ranges between 0.34 and 0.40.
A method for collection of ruthenium or a ruthenium compound, comprising the steps of: putting an aqueous solution containing ruthenium or a ruthenium compound into contact with an inorganic adsorbent; dissolving the entirety or a part of the inorganic adsorbent under an acidic condition; and adding an alkali to deposit the dissolved inorganic adsorbent while causing the inorganic adsorbent to adsorb ruthenium or the ruthenium compound, wherein the inorganic adsorbent is at least one selected from the group consisting of a calcium phosphate compound, a talcite compound, and an amorphous aluminumsilicate, and wherein the step of adding an alkali to deposit the dissolved inorganic adsorbent includes the step of adding the alkali such that a pH value of the aqueous solution becomes 7 or higher. putting an aqueous solution containing ruthenium or a ruthenium compound into contact with an inorganic adsorbent; dissolving the entirety or a part of the inorganic adsorbent under an acidic condition; and adding an alkali to deposit the dissolved inorganic adsorbent while causing the inorganic adsorbent to adsorb ruthenium or the ruthenium compound, wherein the inorganic adsorbent is at least one selected from the group consisting of a calcium phosphate compound, a talcite compound, and an amorphous aluminumsilicate, and wherein the step of adding an alkali to deposit the dissolved inorganic adsorbent includes the step of adding the alkali such that a pH value of the aqueous solution becomes 7 or higher.
A method for precoding a transmission from an antenna array that includes co-polarized antenna elements aligned in a given spatial dimension of the array , wherein the method performed by a transmitting radio node for precoding the transmission to a receiving radio node , comprises: precoding the transmission of an auxiliary element reference signal from different subarrays of the antenna elements using respective coarse-granularity precoders that are factorizable from a multi-granular precoder targeting the given spatial dimension of the array at different granularities, so as to virtualize the subarrays as different auxiliary elements ; precoding the transmission from the different auxiliary elements using one or more finer-granularity precoders that are also factorizable from the multi-granular precoder, wherein the coarse granularity precoders and the one or more finer-granularity precoders are represented within one or more codebooks used for said precoding; transmitting a full-elements reference signal from the antenna elements without precoding; and transmitting the precoded, auxiliary-elements reference signal to the receiving radio node , wherein transmitting the precoded, auxiliary-elements reference signal comprises transmitting the precoded, auxiliary-elements reference signal more often than transmitting the full-elements reference signal. precoding the transmission of an auxiliary element reference signal from different subarrays of the antenna elements using respective coarse-granularity precoders that are factorizable from a multi-granular precoder targeting the given spatial dimension of the array at different granularities, so as to virtualize the subarrays as different auxiliary elements ; precoding the transmission from the different auxiliary elements using one or more finer-granularity precoders that are also factorizable from the multi-granular precoder, wherein the coarse granularity precoders and the one or more finer-granularity precoders are represented within one or more codebooks used for said precoding; transmitting a full-elements reference signal from the antenna elements without precoding; and transmitting the precoded, auxiliary-elements reference signal to the receiving radio node , wherein transmitting the precoded, auxiliary-elements reference signal comprises transmitting the precoded, auxiliary-elements reference signal more often than transmitting the full-elements reference signal.
A lever latching system for a surgical apparatus, comprising: a housing; a lever having a latch pin fixedly mounted to said lever, said lever being movably mounted to said housing so that said latch pin moves in an arc; and a latch plate movably mounted to said housing for only linear movement with respect to said housing, said latch plate comprising a labyrinth for receiving said latch pin and said linear movement of the latch plate being caused by the movement of the latch pin along the labyrinth of the latch plate. a housing; a lever having a latch pin fixedly mounted to said lever, said lever being movably mounted to said housing so that said latch pin moves in an arc; and a latch plate movably mounted to said housing for only linear movement with respect to said housing, said latch plate comprising a labyrinth for receiving said latch pin and said linear movement of the latch plate being caused by the movement of the latch pin along the labyrinth of the latch plate.
A halftone phase shift mask blank comprising a transparent substrate and a halftone phase shift film thereon having a phase shift of 150 to 200° and a transmittance of 3 to 12% with respect to light of wavelength up to 200 nm, wherein said halftone phase shift film is a single layer composed of a silicon base material consisting of silicon and nitrogen or a silicon base material consisting of silicon, nitrogen and oxygen, with an oxygen content being up to 6 at%, the single layer having a refractive index n of at least 2.4 and an extinction coefficient k of 0.4 to 0.7, or a multilayer film including at least one layer composed of a silicon base material consisting of silicon and nitrogen and at least one layer composed of a silicon base material consisting of silicon, nitrogen and oxygen, with an oxygen content being up to 6 at%, at least one layer having a refractive index n of at least 2.4 and an extinction coefficient k of 0.4 to 0.7, and said halftone phase shift film has a thickness of up to 67 nm.
A system (200; 300) for removing energy from a semiconductor, characterized by comprising: a spring-arm device (210; 310) operable to be coupled to a substrate , the spring-arm device comprising at least one aperture (220; 320) operable to allow at least one package mounted on a substrate to pass through when the spring-arm device is coupled to the substrate ; a heat sink operable to remove heat from the at least one package, the heat sink comprising at least one heat sink post , the heat sink post comprising a recessed portion operable to receive a heat-sink clip (226; 326); and at least one spring-arm (224; 324) extending from an inside edge of the aperture (220; 320), the spring-arm comprising the at least one heat-sink clip (226; 326) at the distal end of the spring- arm (224; 324) and operable to retain a heat-sink post , the retention of the heat sink post operable to couple the heat sink to the at least one package. a spring-arm device (210; 310) operable to be coupled to a substrate , the spring-arm device comprising at least one aperture (220; 320) operable to allow at least one package mounted on a substrate to pass through when the spring-arm device is coupled to the substrate ; a heat sink operable to remove heat from the at least one package, the heat sink comprising at least one heat sink post , the heat sink post comprising a recessed portion operable to receive a heat-sink clip (226; 326); and at least one spring-arm (224; 324) extending from an inside edge of the aperture (220; 320), the spring-arm comprising the at least one heat-sink clip (226; 326) at the distal end of the spring- arm (224; 324) and operable to retain a heat-sink post , the retention of the heat sink post operable to couple the heat sink to the at least one package.
An analysis plate comprising: a substrate ; and a molecule immobilized on a surface of the substrate , the molecule specifically recognizing a measurement target substance, wherein the surface of the substrate has a concavo-convex structure capable of exhibiting a structural color; characterized in that the substrate includes a selective reflection layer in at least part of the layer thereof; wherein the selective reflection layer is a layer which reflects only light within a specific wavelength range and transmits light having other wavelengths due to the molecular structure in the layer, wherein a band of light reflection caused by a selective reflectivity of the selective reflection layer falls within a band of light reflection caused by the concavo-convex structure; and wherein the band of the light reflection caused by the selective reflectivity has a peak falling within the band of the light reflection caused by the concavo-convex structure. wherein the surface of the substrate has a concavo-convex structure capable of exhibiting a structural color; characterized in that the substrate includes a selective reflection layer in at least part of the layer thereof; wherein the selective reflection layer is a layer which reflects only light within a specific wavelength range and transmits light having other wavelengths due to the molecular structure in the layer, wherein a band of light reflection caused by a selective reflectivity of the selective reflection layer falls within a band of light reflection caused by the concavo-convex structure; and wherein the band of the light reflection caused by the selective reflectivity has a peak falling within the band of the light reflection caused by the concavo-convex structure.
A method, comprising: determining a current operating mode of a lifting device as the lifting device moves a load in an operating area, the lifting device comprising lifting means, one or more cameras and a controller ; positioning, using positioning means comprising the one or more cameras, in the operating area a restricted object in an area, where the operation of the lifting device is restricted in comparison with the operating area around the restricted object , characterized in that the method comprises; determining a difference between the current operating mode of the lifting device and a restricted operating mode to be applied in the restricted area including the restricted object , wherein determining the restricted operating mode comprises identifying the type of the restricted object to allow operation of the lifting device to be determined according to the type of the restricted object ; determining on the basis of the difference a movement distance travelled by the lifting device when the current operating mode of the lifting device is changed to the operating mode to be applied in the restricted area including the restricted object ; and beginning the changing of the current operating mode of the lifting device to the restricted operating mode to be applied in the restricted object when the distance of the load moved by the lifting device from the restricted object is shorter than the predetermined movement distance. determining a current operating mode of a lifting device as the lifting device moves a load in an operating area, the lifting device comprising lifting means, one or more cameras and a controller ; positioning, using positioning means comprising the one or more cameras, in the operating area a restricted object in an area, where the operation of the lifting device is restricted in comparison with the operating area around the restricted object , characterized in that the method comprises; determining a difference between the current operating mode of the lifting device and a restricted operating mode to be applied in the restricted area including the restricted object , wherein determining the restricted operating mode comprises identifying the type of the restricted object to allow operation of the lifting device to be determined according to the type of the restricted object ; determining on the basis of the difference a movement distance travelled by the lifting device when the current operating mode of the lifting device is changed to the operating mode to be applied in the restricted area including the restricted object ; and beginning the changing of the current operating mode of the lifting device to the restricted operating mode to be applied in the restricted object when the distance of the load moved by the lifting device from the restricted object is shorter than the predetermined movement distance.
Exhaust gas flap device for an internal combustion engine comprising a flow housing which forms an exhaust gas channel a flap body which is rotatably arranged in the exhaust gas channel a shaft on which the flap body is fixed an electric actuator comprising an electric motor and a gear unit , via which the shaft and the flap body are rotatable in the exhaust gas channel , a separate actuator housing in which the actuator is arranged, wherein the shaft extends into the actuator housing , characterized in that an output gear of the gear unit is fixed on the shaft on which the flap body is arranged, and the shaft comprises a thermal conductivity of <17W/mK and is arranged in a bearing which comprises a thermal conductivity of >17W/mK and is arranged in a bearing receptacle of the flow housing wherein the inner circumference of the bearing receptacle corresponds to the outer circumference of the bearing and the bearing receptacle of the flow housing projects into a receiving opening of the actuator housing and bears radially against walls radially delimiting the receiving opening . a shaft on which the flap body is fixed an electric actuator comprising an electric motor and a gear unit , via which the shaft and the flap body are rotatable in the exhaust gas channel , a separate actuator housing in which the actuator is arranged, wherein the shaft extends into the actuator housing , characterized in that an output gear of the gear unit is fixed on the shaft on which the flap body is arranged, and the shaft comprises a thermal conductivity of <17W/mK and is arranged in a bearing which comprises a thermal conductivity of >17W/mK and is arranged in a bearing receptacle of the flow housing wherein the inner circumference of the bearing receptacle corresponds to the outer circumference of the bearing and the bearing receptacle of the flow housing projects into a receiving opening of the actuator housing and bears radially against walls radially delimiting the receiving opening .
An assembly for carrying out tests on electrical and/or electronic circuits, the assembly comprising: - a plurality of probes each having a tip adapted to be placed electrically in contact with the electrical and/or electronic components of the circuit to be tested and means for detecting one or more electrical and/or electronic parameters of the circuit, said detecting means being connectable to the respective tips , and said detecting means being a tester or multitester; and - a tool for carrying out tests on electrical and/or electronic circuits, adapted to be used in combination with said probes, and comprising: - a supporting frame designed to define a support plane for positioning at least one electric and/or electronic circuit on which to perform a test; and - a support structure of the probes of the tester or multitester, said support structure being connected to said frame in a fixed or adjustable manner to be arranged above said support plane and having means for connecting one or more probes at a time and positioning them on said support plane with the respective tips in contact with the circuit positioned thereon; the assembly being characterized in that said support structure comprises an articulated arm having a fixed end connected to said supporting frame and a movable end provided with means for fastening a plurality of tips adapted to be electrically and/or electronically connected to the tester or multitester. - a plurality of probes each having a tip adapted to be placed electrically in contact with the electrical and/or electronic components of the circuit to be tested and means for detecting one or more electrical and/or electronic parameters of the circuit, said detecting means being connectable to the respective tips , and said detecting means being a tester or multitester; and - a tool for carrying out tests on electrical and/or electronic circuits, adapted to be used in combination with said probes, and comprising: - a supporting frame designed to define a support plane for positioning at least one electric and/or electronic circuit on which to perform a test; and - a support structure of the probes of the tester or multitester, said support structure being connected to said frame in a fixed or adjustable manner to be arranged above said support plane and having means for connecting one or more probes at a time and positioning them on said support plane with the respective tips in contact with the circuit positioned thereon; - a supporting frame designed to define a support plane for positioning at least one electric and/or electronic circuit on which to perform a test; and - a support structure of the probes of the tester or multitester, said support structure being connected to said frame in a fixed or adjustable manner to be arranged above said support plane and having means for connecting one or more probes at a time and positioning them on said support plane with the respective tips in contact with the circuit positioned thereon;
An ultrasonic sensor for capturing a value document which is transported through a capture region of the ultrasonic sensor, having an ultrasonic transducer as an ultrasound transmitter (30, 30'; 82) and an ultrasonic transducer as an ultrasound receiver (32, 32'; 82) which are so arranged that ultrasound is emittable by the ultrasound transmitter (30, 30'; 82) into the capture region and the ultrasound transmitter's (30, 30'; 82) ultrasound coming from the capture region is receivable by the ultrasound receiver (32, 32'; 82), having a control and evaluation circuit for controlling the ultrasound transmitter (30, 30'; 82) and for capturing and evaluating signals of the ultrasound receiver (32, 32'; 82), characterized by a circuit carrier (28; 73) on which the control and evaluation circuit, the ultrasound transmitter (30, 30'; 82) and the ultrasound receiver (32, 32'; 82) as well as conducting paths (36; 80) electrically connecting the control and evaluation circuit to the ultrasound transmitter (30, 30'; 82) and the ultrasound receiver (32, 32'; 82) are held, the circuit carrier (28; 73) being of U-shaped configuration and having two interconnected arm portions , the circuit carrier (28; 73) being a printed board and the ultrasound transmitter (30, 30'; 82) being held on one of the two arm portions and the ultrasound receiver (32, 32'; 82) on the other of the two arm portions .