mhurhangee/patent-ind-claim-en huggingface dataset:
Cleaning apparatus having a housing device for housing dirty objects (O, O1 - O8), a drive device for moving the cleaning apparatus , a control device for controlling the drive device for steering a movement of the cleaning apparatus in dependence on sensor signals provided by a sensor system , comprising: a detection unit for detecting dirty objects (O, O1 - O8) arranged in a predefinable area (A), an evaluation unit for classifying the dirty objects (O, O1 - O8) detected by the detection unit into different dirty classes (K, K1 - K5), and a track planning unit for determining an optimized track (B opt ) for the cleaning apparatus in the predefined area (A) in dependence on a respective position (P, P1 - P6) of the detected dirty objects (O, O1 - O8) and the respective dirty class (K, K1 - K5) of the dirty objects (O, O1 - O8), wherein the control device is configured to control the drive device for performing a cleaning ride along the determined optimized track (B opt ). a detection unit for detecting dirty objects (O, O1 - O8) arranged in a predefinable area (A), an evaluation unit for classifying the dirty objects (O, O1 - O8) detected by the detection unit into different dirty classes (K, K1 - K5), and a track planning unit for determining an optimized track (B opt ) for the cleaning apparatus in the predefined area (A) in dependence on a respective position (P, P1 - P6) of the detected dirty objects (O, O1 - O8) and the respective dirty class (K, K1 - K5) of the dirty objects (O, O1 - O8), wherein the control device is configured to control the drive device for performing a cleaning ride along the determined optimized track (B opt ).
A fibrinolytic agent for use in treating or reducing airway obstruction in a subject who has been exposed to a toxic inhaled chemical (TIC), wherein the TIC is sulfur mustard (SM) or 2-Chloroethyl ethyl sulfide (CEES).
A method in a network node for performing multi-channel access procedures in a License-Assisted Access, LAA, cell in a wireless communication network, comprising: selecting one carrier as a master carrier and starting a Listen Before Talk, LBT, channel sensing for all carriers at a same or different point in time, thereby both Type A and Type B access procedures are started simultaneously on all carriers; storing LBT channel sensing results for all carriers for at least the last two slot durations of a subframe of the respective carriers; checking if the LBT channel sensing on the master carrier is successful based on its LBT channel sensing result; when the LBT channel sensing on the master carrier is successful, checking the LBT channel sensing results for all other carriers, and transmitting on the master carrier and the other carriers where the LBT channel sensing of Type B is successful at the subframe boundary of the respective carriers or at a time earlier than the subframe boundary of the respective carriers; when the subframe boundary of the master carrier is reached and the LBT channel sensing on the master carrier is not successful, transmitting on the carriers where the LBT channel sensing of Type A is successful at the subframe boundary of the respective carriers . selecting one carrier as a master carrier and starting a Listen Before Talk, LBT, channel sensing for all carriers at a same or different point in time, thereby both Type A and Type B access procedures are started simultaneously on all carriers; storing LBT channel sensing results for all carriers for at least the last two slot durations of a subframe of the respective carriers; checking if the LBT channel sensing on the master carrier is successful based on its LBT channel sensing result; when the LBT channel sensing on the master carrier is successful, checking the LBT channel sensing results for all other carriers, and transmitting on the master carrier and the other carriers where the LBT channel sensing of Type B is successful at the subframe boundary of the respective carriers or at a time earlier than the subframe boundary of the respective carriers; when the subframe boundary of the master carrier is reached and the LBT channel sensing on the master carrier is not successful, transmitting on the carriers where the LBT channel sensing of Type A is successful at the subframe boundary of the respective carriers .
Water ion generation device , comprising: - at least one absorption body comprising water absorption material that is configured to absorb water (w) from the air at temperatures below an absorption threshold and to release water (w) to the air at temperatures above the absorption threshold, and - an electrode arrangement configured to perform an ionizing action on water (w) in the air for generating water ions (i), the electrode arrangement including a discharge electrode and an electric circuit configured to apply a high voltage to the discharge electrode , wherein the discharge electrode is generally shaped like a pin and the at least one absorption body is arranged in the vicinity of a tip portion of the discharge electrode , wherein the water absorption material of the at least one absorption body has an absorption threshold higher than room temperature. - at least one absorption body comprising water absorption material that is configured to absorb water (w) from the air at temperatures below an absorption threshold and to release water (w) to the air at temperatures above the absorption threshold, and - an electrode arrangement configured to perform an ionizing action on water (w) in the air for generating water ions (i), the electrode arrangement including a discharge electrode and an electric circuit configured to apply a high voltage to the discharge electrode , wherein the discharge electrode is generally shaped like a pin and the at least one absorption body is arranged in the vicinity of a tip portion of the discharge electrode , wherein the water absorption material of the at least one absorption body has an absorption threshold higher than room temperature. wherein the discharge electrode is generally shaped like a pin and the at least one absorption body is arranged in the vicinity of a tip portion of the discharge electrode , wherein the water absorption material of the at least one absorption body has an absorption threshold higher than room temperature.
A computing apparatus , comprising: a processor configured for evaluating at least one scan parameter of a scan protocol selected for scanning a subject with an imaging system based on a corresponding scan parameter policy and generating a signal indicative of whether the scan parameter satisfies the scan parameter policy, wherein the scan parameter policy includes at least one of a radiation dose policy corresponding to ionizing radiation exposure, a contrast agent policy, or an image quality policy, wherein the processor is configured for validating the scan parameter in response to the scan parameter satisfying a predetermined threshold in the scan parameter policy, wherein the processor is configured to suggest, based on the scan parameter policy, an optimized replacement scan parameter for a scan parameter that satisfies the scan parameter policy based on predetermined optimization criteria optimizing or minimizing a patient dose for diagnostic quality imaging.
Process for the preparation of a glass fiber reinforced polymer composition (G), comprising the subsequent steps of a) unwinding from a package of at least one continuous glass multifilament strand; b) applying the impregnating agent to the continuous glass multifilament strands to form the impregnated continuous multifilament strands c) applying a sheath of thermoplastic polymer composition (X) around said multifilament strand to form a sheathed continuous multifilament strand, wherein the melt flow index (MFI) of the thermoplastic polymer composition (X) is in the range from 78 to 180 dg/min as measured according to ISO1133-1:2011 with a 2.16kg load at 230°C. a) unwinding from a package of at least one continuous glass multifilament strand; b) applying the impregnating agent to the continuous glass multifilament strands to form the impregnated continuous multifilament strands c) applying a sheath of thermoplastic polymer composition (X) around said multifilament strand to form a sheathed continuous multifilament strand, wherein the melt flow index (MFI) of the thermoplastic polymer composition (X) is in the range from 78 to 180 dg/min as measured according to ISO1133-1:2011 with a 2.16kg load at 230°C.
A building block system, comprising: a plurality of basic units and a plurality of connectors ; wherein the basic units are cubes; wherein each of the connectors is used to connect two basic units ; wherein each face of the basic units is evenly set with four connecting holes ; wherein each face of the basic unit is set with a slot ; wherein the connecting holes on each of the two opposing faces are correspondingly connected by the slots of the other four faces; wherein the connector inserts into one connecting hole on one face of the basic unit , and comes out from another connecting hole on the opposing face through the slot to connect with another basic unit ; wherein each connecting hole is correspondingly set at the inner side of each face's side edge; wherein the connector is a flat cuboid; wherein the cross section of connecting hole is a rectangle; wherein the long side of the rectangle is parallel to the corresponding side edge of the cube; wherein the connecting hole is adjacent to the inner side of the slot and is interlinked with the slot mutually; wherein the slot is set at from the central of the face extending to each connecting hole , and the bottom faces of the slots compose a small cube . a plurality of basic units and a plurality of connectors ; wherein the basic units are cubes; wherein each of the connectors is used to connect two basic units ; wherein each face of the basic units is evenly set with four connecting holes ; wherein each face of the basic unit is set with a slot ; wherein the connecting holes on each of the two opposing faces are correspondingly connected by the slots of the other four faces; wherein the connector inserts into one connecting hole on one face of the basic unit , and comes out from another connecting hole on the opposing face through the slot to connect with another basic unit ; wherein each connecting hole is correspondingly set at the inner side of each face's side edge; wherein the connector is a flat cuboid; wherein the cross section of connecting hole is a rectangle; wherein the long side of the rectangle is parallel to the corresponding side edge of the cube; wherein the connecting hole is adjacent to the inner side of the slot and is interlinked with the slot mutually; wherein the slot is set at from the central of the face extending to each connecting hole , and the bottom faces of the slots compose a small cube .
An electromechanical transducer having a layered structure comprising, in this order: - a first layer which has, in at least one plane, at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, - a second layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a third layer comprising an electromechanical functional element, - a fourth layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a fifth layer having in at least one plane at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, characterized in that the first layer and/or the fifth layer has or have an electrical contact exposed on its outer side . - a first layer which has, in at least one plane, at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield, - a second layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a third layer comprising an electromechanical functional element, - a fourth layer serving as an adhesive layer, which is electrically conductive at least at certain points, - a fifth layer having in at least one plane at least one outwardly insulated, structured, electrically conductive region acting as an electrical shield,
A low drag garment having a front region (A), a rear region (C) and at least one side region (B), the low drag garment comprising a textured fabric in said at least one side region (B), wherein the textured fabric has a texture pattern with a substantially uniform texture height (H) wherein the textured fabric in the side region (B) has a texture pattern that comprises a plurality of isolated texture formations separated by regions with substantially no surface texture, and the texture formations are arranged in a plurality of rows and each said row extends transverse to a direction of airflow from the front region to the rear region of the garment, characterised in that the texture pattern has a substantially uniform texture height (H) in the range of 0.2 to 0.8 mm and the rows have a mean spacing D in a direction of airflow in the range 1mm to 10mm.
A multibit memory cell , comprising: a plurality of spin-orbit torque, SOT, tracks, including at least a first SOT track and a second SOT track separate from the first SOT track; a plurality of magnetic tunnel junctions, MTJs, including at least a first MTJ provided on the first SOT track such that a magnetic free layer of the first MTJ is connected to the first SOT track, and a second MTJ and a third MTJ both provided on the second SOT track such that a respective magnetic free layer of the second MTJ and third MTJ are both connected to the second SOT track; an electrically conductive path connecting magnetic reference layers of the first MTJ and the second MTJ together; and a plurality of terminals configured to provide: a first SOT write current for the first MTJ in the first SOT track; a second SOT write current for the second MTJ in the second SOT track; and at least one of the second SOT write current for the third MTJ in the second SOT track, a third SOT write current for the third MTJ in the second SOT track, and a spin transfer torque, STT, write current through the third MTJ, wherein respective junction resistances of the plurality of MTJs are configured such that a combined multibit memory state of the plurality of MTJs is read by a read current passing through all of the plurality of MTJs connected in series via the electrically conductive path. a plurality of spin-orbit torque, SOT, tracks, including at least a first SOT track and a second SOT track separate from the first SOT track; a plurality of magnetic tunnel junctions, MTJs, including at least a first MTJ provided on the first SOT track such that a magnetic free layer of the first MTJ is connected to the first SOT track, and a second MTJ and a third MTJ both provided on the second SOT track such that a respective magnetic free layer of the second MTJ and third MTJ are both connected to the second SOT track; an electrically conductive path connecting magnetic reference layers of the first MTJ and the second MTJ together; and a plurality of terminals configured to provide: a first SOT write current for the first MTJ in the first SOT track; a second SOT write current for the second MTJ in the second SOT track; and at least one of the second SOT write current for the third MTJ in the second SOT track, a third SOT write current for the third MTJ in the second SOT track, and a spin transfer torque, STT, write current through the third MTJ, a first SOT write current for the first MTJ in the first SOT track; a second SOT write current for the second MTJ in the second SOT track; and at least one of the second SOT write current for the third MTJ in the second SOT track, a third SOT write current for the third MTJ in the second SOT track, and a spin transfer torque, STT, write current through the third MTJ, wherein respective junction resistances of the plurality of MTJs are configured such that a combined multibit memory state of the plurality of MTJs is read by a read current passing through all of the plurality of MTJs connected in series via the electrically conductive path.
A medicament having an anti-inflammatory bowel disease effect, having a structure represented by Formula I or Formula II: wherein R 1 and R 2 are each independently selected from any one of hydrogen, ethyl, n-propyl, n-butyl, isopropyl, allyl, isobutyl, t-butyl, benzyl, and acetyl; R 3 is selected from any one of hydrogen, or a sulfonic acid group; and in Formula I, R 1 , R 2 , and R 3 are not hydrogen at the same time; R 1 , R 2 , and R 3 are not acetyl at the same time; R 1 and R 2 are not benzyl at the same time; and when R 2 and R 3 are hydrogen, R 1 is not benzyl; and in Formula II, R 1 and R 2 are not hydrogen or benzyl at the same time. wherein R 1 and R 2 are each independently selected from any one of hydrogen, ethyl, n-propyl, n-butyl, isopropyl, allyl, isobutyl, t-butyl, benzyl, and acetyl; R 3 is selected from any one of hydrogen, or a sulfonic acid group; and in Formula I, R 1 , R 2 , and R 3 are not hydrogen at the same time; R 1 , R 2 , and R 3 are not acetyl at the same time; R 1 and R 2 are not benzyl at the same time; and when R 2 and R 3 are hydrogen, R 1 is not benzyl; and in Formula II, R 1 and R 2 are not hydrogen or benzyl at the same time.
A coiled tape material guiding machine, comprising: a base , and a material guiding roller group provided on the base , wherein the coiled tape material guiding machine further comprises a material guiding portion configured to receive an extending end of a coiled tape , and guide the extending end to enter into the material guiding roller group ; wherein the material guiding portion is hinged to the base , and a pitch angle of the material guiding portion is adjustable to receive the extending end , wherein the material guiding portion comprises a guiding plate , the guiding plate is configured to pitch relative to the base , an upper surface and a lower surface of the guiding plate each forms a guiding surface, the guiding plate is configured to guide the extending end into the material guiding roller group via the upper surface or the lower surface, characterized in that the coiled tape material guiding machine further comprises a baseplate , wherein a relative position of the baseplate to the material guiding roller group is fixed, the baseplate and the guiding plate are both in a triangular shape, upper surfaces and lower surfaces of the baseplate and the guiding plate are each a slope, bottoms of the baseplate and the guiding plate are hinged together; and in that the guiding plate is configured to pitch to form, by cooperation of the upper surfaces of the guiding plate and the baseplate or by cooperation of the lower surfaces of the guiding plate and the baseplate , a guiding surface fitting the extending end . a base , and a material guiding roller group provided on the base , wherein the coiled tape material guiding machine further comprises a material guiding portion configured to receive an extending end of a coiled tape , and guide the extending end to enter into the material guiding roller group ; wherein the material guiding portion is hinged to the base , and a pitch angle of the material guiding portion is adjustable to receive the extending end , wherein the material guiding portion comprises a guiding plate , the guiding plate is configured to pitch relative to the base , an upper surface and a lower surface of the guiding plate each forms a guiding surface, the guiding plate is configured to guide the extending end into the material guiding roller group via the upper surface or the lower surface, characterized in that the coiled tape material guiding machine further comprises a baseplate , wherein a relative position of the baseplate to the material guiding roller group is fixed, the baseplate and the guiding plate are both in a triangular shape, upper surfaces and lower surfaces of the baseplate and the guiding plate are each a slope, bottoms of the baseplate and the guiding plate are hinged together; and in that the guiding plate is configured to pitch to form, by cooperation of the upper surfaces of the guiding plate and the baseplate or by cooperation of the lower surfaces of the guiding plate and the baseplate , a guiding surface fitting the extending end .
A process for preparing sugammadex of formula I, comprising the steps of, a) reacting 6-per-deoxy-6-per-halo-γ-cyclodextrin of compound of formula II, wherein, X is chlorine, bromine or iodine with an isolated salt of 3-mercapto propionic acid, selected from the group comprising of di sodium salt of 3-mercapto propionic acid, di lithium salt of 3-mercapto propionic acid, di potassium salt of 3-mercapto propionic acid, in an organic solvent to obtain sugammadex, b) optionally, purifying the sugammadex. a) reacting 6-per-deoxy-6-per-halo-γ-cyclodextrin of compound of formula II, wherein, X is chlorine, bromine or iodine with an isolated salt of 3-mercapto propionic acid, selected from the group comprising of di sodium salt of 3-mercapto propionic acid, di lithium salt of 3-mercapto propionic acid, di potassium salt of 3-mercapto propionic acid, in an organic solvent to obtain sugammadex, b) optionally, purifying the sugammadex.
An output module for an industrial controller , comprising: a plurality of output terminals configured to generate an output signal ; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define at least one pulse width modulated waveform; and a processor configured to execute the series of instructions to: read the configuration parameters; generate at least one pulse width modulated output waveform as a function of the configuration parameters; and output each pulse width modulated waveform at one of the output terminals, wherein the module further comprises a scheduling module stored in the memory device and wherein the processor is further configured to execute the scheduling module to assign the start of the on time for at least one of the pulse width modulated waveforms at a first time within the PWM period and at least one of the pulse width modulated waveforms at a second time within the PWM period. a plurality of output terminals configured to generate an output signal ; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define at least one pulse width modulated waveform; and a processor configured to execute the series of instructions to: read the configuration parameters; generate at least one pulse width modulated output waveform as a function of the configuration parameters; and output each pulse width modulated waveform at one of the output terminals, read the configuration parameters; generate at least one pulse width modulated output waveform as a function of the configuration parameters; and output each pulse width modulated waveform at one of the output terminals, wherein the module further comprises a scheduling module stored in the memory device and wherein the processor is further configured to execute the scheduling module to assign the start of the on time for at least one of the pulse width modulated waveforms at a first time within the PWM period and at least one of the pulse width modulated waveforms at a second time within the PWM period.