mhurhangee/ep-ind-claims huggingface dataset:
A method of predicting whether a composition of extracellular vesicles (EVs) has proangiogenic activity, comprising the steps of: (a) quantifying the miR-130a microRNA content in the composition of EVs, and (b) quantifying the transforming growth factor beta (TGFβ) content in the composition of EVs; (c) determining whether the miR-130a content is above a first predetermined value and the TGFβ content is above a second predetermined value, wherein: when the miR-130a content is above said first predetermined value and the TGFβ content is above said second predetermined value, the composition of EVs is predicted to have proangiogenic activity. (a) quantifying the miR-130a microRNA content in the composition of EVs, and (b) quantifying the transforming growth factor beta (TGFβ) content in the composition of EVs; (c) determining whether the miR-130a content is above a first predetermined value and the TGFβ content is above a second predetermined value,
A method for transmitting a pre-coding indicator, the method comprising: determining, by a UE, a first pre-coding indicator and a second pre-coding indicator, wherein the first pre-coding indicator and the second pre-coding indicator correspond to a pre-coding matrix which is equal to a matrix as a function of a first component pre-coding matrix and a second component pre-coding matrix, the first component pre-coding matrix is a block diagonal matrix with sub-matrixes on the diagonal being a Kronecker product of two diagonal matrixes, and the second component pre-coding matrix is dependent on the first component pre-coding matrix and constructed by beam-rotating vectors, each of the beam-rotating vectors is equal to a Kronecker product of two vectors; and transmitting, by the UE, the first pre-coding indicator and the second pre-coding indicator to a network side. determining, by a UE, a first pre-coding indicator and a second pre-coding indicator, wherein the first pre-coding indicator and the second pre-coding indicator correspond to a pre-coding matrix which is equal to a matrix as a function of a first component pre-coding matrix and a second component pre-coding matrix, the first component pre-coding matrix is a block diagonal matrix with sub-matrixes on the diagonal being a Kronecker product of two diagonal matrixes, and the second component pre-coding matrix is dependent on the first component pre-coding matrix and constructed by beam-rotating vectors, each of the beam-rotating vectors is equal to a Kronecker product of two vectors; and transmitting, by the UE, the first pre-coding indicator and the second pre-coding indicator to a network side.
A drilling unit for drilling a hole, wherein the drilling unit comprising a drilling head, wherein said drilling head further comprising pulling means for pulling a casing into the hole; a pilot bit for drilling a center hole; a ring bit assembly for reaming the center hole for the casing, the ring bit assembly being connected to the casing by the pulling means, and the ring bit assembly comprising a carrier comprising carrier coupling means, and a plurality of ring bit segments movably attached to said carrier coupling means; and connecting means connecting the ring bit assembly to the pilot bit, the connecting means comprising the carrier coupling means, the carrier coupling means comprising a plurality of carrier holes and carrier ribs, and the ring bit segment comprising a segment impact shoulder and a segment reamer shoulder, wherein said segment impact shoulders are attached into the carrier holes, and wherein said segment reamer shoulders and the segment impact shoulders are arranged to attach the ring bit segments to said carrier ribs from the inside of the carrier when said ring bit segments are in the extended position, wherein the pilot bit being connected to the ring bit assembly by the ring bit segments. pulling means for pulling a casing into the hole; a pilot bit for drilling a center hole; a ring bit assembly for reaming the center hole for the casing, the ring bit assembly being connected to the casing by the pulling means, and the ring bit assembly comprising a carrier comprising carrier coupling means, and a plurality of ring bit segments movably attached to said carrier coupling means; and connecting means connecting the ring bit assembly to the pilot bit, the connecting means comprising the carrier coupling means, the carrier coupling means comprising a plurality of carrier holes and carrier ribs, and the ring bit segment comprising a segment impact shoulder and a segment reamer shoulder, wherein said segment impact shoulders are attached into the carrier holes, and wherein said segment reamer shoulders and the segment impact shoulders are arranged to attach the ring bit segments to said carrier ribs from the inside of the carrier when said ring bit segments are in the extended position, wherein the pilot bit being connected to the ring bit assembly by the ring bit segments.
A sanitizing system comprising: multiple ultraviolet lamps each including one or more UV emitters configured to emit UV light, wherein the UV lamps are positioned to emit the UV light towards one or more target components within a space; a power supply module electrically connected to each of the UV lamps and configured to provide electrical energy to the UV lamps to power the UV emitters to sanitize the one or more target components, wherein each of the UV lamps is individually electrically connected to the power supply module via a respective switch device comprising a vacuum switch, at least one IGBT, or at least one FET. multiple ultraviolet lamps each including one or more UV emitters configured to emit UV light, wherein the UV lamps are positioned to emit the UV light towards one or more target components within a space; a power supply module electrically connected to each of the UV lamps and configured to provide electrical energy to the UV lamps to power the UV emitters to sanitize the one or more target components, wherein each of the UV lamps is individually electrically connected to the power supply module via a respective switch device comprising a vacuum switch, at least one IGBT, or at least one FET.
A drum-type washing machine comprising: a rotary drum; a water tank including the rotary drum; a drum pulley securely installed on a rotation shaft of the rotary drum; a motor fixed to an outer bottom portion of the water tank; a belt that transmits rotation of the motor to the drum pulley; a number-of-rotations detection unit for detecting a number of rotations of the motor; a lid for opening/closing an opening part of the rotary drum; a lid locking device for locking the lid in a closed state; and a controller for executing each process of at least a washing process, a rinsing process, and a dehydrating process, characterized in that the controller executes control by determining that the belt is broken or disengaged from the drum pulley according to a stopping time from the start of a braking operation of the motor to stopping and the number of rotations of the motor, and wherein the controller determines that the belt is either broken or disengaged from the drum pulley if the stopping time of the motor is shorter than a first predetermined time when the motor is braked. a rotary drum; a water tank including the rotary drum; a drum pulley securely installed on a rotation shaft of the rotary drum; a motor fixed to an outer bottom portion of the water tank; a belt that transmits rotation of the motor to the drum pulley; a number-of-rotations detection unit for detecting a number of rotations of the motor; a lid for opening/closing an opening part of the rotary drum; a lid locking device for locking the lid in a closed state; and a controller for executing each process of at least a washing process, a rinsing process, and a dehydrating process, characterized in that the controller executes control by determining that the belt is broken or disengaged from the drum pulley according to a stopping time from the start of a braking operation of the motor to stopping and the number of rotations of the motor, and wherein the controller determines that the belt is either broken or disengaged from the drum pulley if the stopping time of the motor is shorter than a first predetermined time when the motor is braked.
A composition suitable for a companion animal, the composition comprising a protein source, a carbohydrate source, a vegetable source, and a fruit source; wherein the protein source is a combination of chicken, egg protein, and corn gluten meal; wherein the carbohydrate source is a combination of millet, brewers rice, and oat groats; and wherein the vegetable source is a combination of carrots, spinach, and tomato pomace; and wherein the fruit source is citrus pulp.
Fitting element for fitting to a circuit board with - a first fitting section for connection with a spacer element, - a second arresting section for arresting with a circuit board, and - a central section, arranged between the fitting section and the arresting section for forming a first stop for the spacer element and a second stop for the circuit board, characterised in that an end of the second arresting section forms an assembly area serving as a suction area for pneumatically holding the fitting element. - a first fitting section for connection with a spacer element, - a second arresting section for arresting with a circuit board, and - a central section, arranged between the fitting section and the arresting section for forming a first stop for the spacer element and a second stop for the circuit board, characterised in that an end of the second arresting section forms an assembly area serving as a suction area for pneumatically holding the fitting element.
System for the analysis of analytes through mechanical resonance transduction, suitable for its use in the identification of cells, bacteria, virus, protein or nanoparticles in the range of frequency between 1 MHz and 300 GHz, wherein said system comprises: a) at least one mechanical resonator sensor comprising means for receiving at least one analyte disposed thereon, wherein said analyte possesses at least one mechanical vibration mode and said mechanical resonator sensor possesses at least one mechanical vibration mode selectable in one or more working frequencies; b) means for monitoring the mechanical spectra of the coupled system conformed by the analyte and the mechanical resonator sensor; c) means for selecting a working frequency of the mechanical vibration mode of the mechanical resonator sensor, such that the coupling constant κ between the mechanical vibration mode of the mechanical resonator sensor and the mechanical vibration mode of the analyte is greater than 1/(3 Q), where Q is the quality factor of the mechanical resonator sensor. a) at least one mechanical resonator sensor comprising means for receiving at least one analyte disposed thereon, wherein said analyte possesses at least one mechanical vibration mode and said mechanical resonator sensor possesses at least one mechanical vibration mode selectable in one or more working frequencies; b) means for monitoring the mechanical spectra of the coupled system conformed by the analyte and the mechanical resonator sensor; c) means for selecting a working frequency of the mechanical vibration mode of the mechanical resonator sensor, such that the coupling constant κ between the mechanical vibration mode of the mechanical resonator sensor and the mechanical vibration mode of the analyte is greater than 1/(3 Q), where Q is the quality factor of the mechanical resonator sensor.
A respiratory humidification system comprising: a flow generator configured to deliver a flow of breathing gas; a humidifier configured to receive a flow of gas from a flow generator and to output a humidified flow of gas; and a communication connection between the humidifier and the flow generator; wherein, the communication connection is configured to permit electronic communication between the humidifier and the flow generator; wherein the respiratory humidification system further comprises a second communication connection between the humidifier and a breathing circuit, the second communication connection being configured to permit electronic communication between the humidifier and the breathing circuit; wherein the communication connection and the second communication connection allow control signals to be transmitted between various components of the respiratory humidification system to permit the flow generator to control the humidifier; and wherein the flow generator sets an operating mode of the humidifier based on data related to the flow generator received by the humidifier from the flow generator through the communication connection, the data related to the flow generator comprising at least data related to a type of flow generator. a flow generator configured to deliver a flow of breathing gas; a humidifier configured to receive a flow of gas from a flow generator and to output a humidified flow of gas; and a communication connection between the humidifier and the flow generator; wherein, the communication connection is configured to permit electronic communication between the humidifier and the flow generator; wherein the respiratory humidification system further comprises a second communication connection between the humidifier and a breathing circuit, the second communication connection being configured to permit electronic communication between the humidifier and the breathing circuit; wherein the communication connection and the second communication connection allow control signals to be transmitted between various components of the respiratory humidification system to permit the flow generator to control the humidifier; and wherein the flow generator sets an operating mode of the humidifier based on data related to the flow generator received by the humidifier from the flow generator through the communication connection, the data related to the flow generator comprising at least data related to a type of flow generator.
A railway wagon configured to carry a semitrailer or the like, said railway wagon comprising a first bogie, a second bogie and a carrying section; said carrying section being movable between a first position in which it extends between said bogies (3, 4), and a second position in which the carrying section is turned out from the railway wagon for loading and unloading the semitrailer; wherein said railway wagon further comprises a channel for conduits extending between the first bogie and the second bogie, the railway wagon being characterised in that, said channel is configured to be automatically lowered in a mechanical way when the carrying section is turned out to said second position. wherein said railway wagon further comprises a channel for conduits extending between the first bogie and the second bogie, the railway wagon being characterised in that, said channel is configured to be automatically lowered in a mechanical way when the carrying section is turned out to said second position.
A skin treatment system comprising: a handheld microdermabrasion device (100A, 3200) comprising a main body (110A, 3210) and a tip (130A, 3240), wherein the tip is positioned along a distal end of the handheld microdermabrasion device; a fluid delivery conduit configured to place the tip in fluid communication with a fluid source; a suction conduit configured to place the tip in fluid communication with a vacuum source; wherein each of the fluid delivery conduit and the suction conduit include at least one port (122A, 126A, 3246, 3248), wherein the ports of the fluid delivery conduit and the suction conduit are located within an area defined by a lip (132A, 3260) of the tip; and wherein the tip further comprises at least one abrading member, the at least one abrading member being configured to abrade skin when the handheld microdermabrasion device is moved relative to a skin surface; and an air delivery conduit (124A, 3256) configured to deliver air to the tip, wherein the air delivery conduit is separate from the fluid delivery conduit and the suction conduit, wherein fluid delivered via the air delivery conduit is configured to provide pneumatic or mechanical agitation to the skin surface in order to apply a pressure on the skin surface, wherein the application of pressure on the skin surface enhances the passage of liquids through the skin surface during use. a handheld microdermabrasion device (100A, 3200) comprising a main body (110A, 3210) and a tip (130A, 3240), wherein the tip is positioned along a distal end of the handheld microdermabrasion device; a fluid delivery conduit configured to place the tip in fluid communication with a fluid source; a suction conduit configured to place the tip in fluid communication with a vacuum source; wherein each of the fluid delivery conduit and the suction conduit include at least one port (122A, 126A, 3246, 3248), wherein the ports of the fluid delivery conduit and the suction conduit are located within an area defined by a lip (132A, 3260) of the tip; and wherein the tip further comprises at least one abrading member, the at least one abrading member being configured to abrade skin when the handheld microdermabrasion device is moved relative to a skin surface; and an air delivery conduit (124A, 3256) configured to deliver air to the tip, wherein the air delivery conduit is separate from the fluid delivery conduit and the suction conduit, wherein fluid delivered via the air delivery conduit is configured to provide pneumatic or mechanical agitation to the skin surface in order to apply a pressure on the skin surface, wherein the application of pressure on the skin surface enhances the passage of liquids through the skin surface during use.
A system, comprising: an X-ray source configured to generate X-rays directed toward an object, wherein the X-ray source is configured to: (i) generate a first energy X-ray pulse, (ii) switch to generate a second energy X-ray pulse, and (iii) switch back to generate another first energy X-ray pulse, wherein the second energy X-ray pulse is associated with a higher voltage level than the first energy X-ray pulses; a detector associated with multiple image pixels, characterized in that the detector includes, for each pixel: an X-ray sensitive element to receive X-rays, a first storage element and associated switch to capture information associated with the first energy X-ray pulses, and a second storage element and associated switch to capture information associated with the second energy X-ray pulse; and a controller to synchronize the X-ray source and detector. an X-ray source configured to generate X-rays directed toward an object, wherein the X-ray source is configured to: (i) generate a first energy X-ray pulse, (ii) switch to generate a second energy X-ray pulse, and (iii) switch back to generate another first energy X-ray pulse, wherein the second energy X-ray pulse is associated with a higher voltage level than the first energy X-ray pulses; a detector associated with multiple image pixels, characterized in that the detector includes, for each pixel: an X-ray sensitive element to receive X-rays, a first storage element and associated switch to capture information associated with the first energy X-ray pulses, and a second storage element and associated switch to capture information associated with the second energy X-ray pulse; and an X-ray sensitive element to receive X-rays, a first storage element and associated switch to capture information associated with the first energy X-ray pulses, and a second storage element and associated switch to capture information associated with the second energy X-ray pulse; and a controller to synchronize the X-ray source and detector.
An epoxy resin having a mesogenic structure and a siloxane structure, wherein the mesogenic structure comprises a structural unit derived from an epoxy compound having a mesogenic structure and comprising two epoxy groups.
Assembly made up of a drawer rail (12, 13), which can be assigned to a drawer, and of a switchable lighting device (14, 15), which comprises a lamp unit, by means of which it is periodically possible to establish a lighting effect in the drawer rail (12, 13), wherein the lighting device (14, 15) comprises a lighting-monitoring means for monitoring operation of the lighting device (14, 15), also comprises an energy-storage device (17, 32-34) for supplying the lighting device (14, 15) with electrical energy, and further comprises a sensor arrangement for sensing a movement state of the assembly and therefore of the drawer, when the assembly is present on the drawer, wherein the lighting-monitoring means is designed so that, in dependence on the movement state of the assembly that is sensed by the sensor arrangement, it switches the lighting device (14, 15) on or off, wherein the sensor arrangement is capable of sensing - in relation to the assembly - acceleration and/or inclination and/or vibration and/or juddering and/or a shock state and/or a change in position or distance, characterized by the provision of a control unit for control with the lighting-monitoring means, the control unit being integrated in the lamp unit, wherein the energy-storage device (17, 32-34) is designed in the form of a structural unit which has a plug-in location for a plug-in connection to an electric cable, wherein the plug-in location comprises a plug-in portion which is recessed in relation to an outer housing side, or is set back inwards, and on which a plug of the electric cable can be brought into conductive plug-in contact, friction being involved in the process, wherein the energy-storage device (17, 32-34) is designed in the form of a plug-in component for releasable fitting on a mating portion, wherein an appropriate socket is formed on the mating portion, which is present on parts of the rest of the drawer, wherein the socket on the mating portion and a plug portion on the energy-storage device are coordinated with one another such that it is readily possible - using a straightforward hand movement - for the energy-storage device to be releasably engaged on the mating portion and thus fitted thereon in a fixed position.
A computer-implemented method for determining a malignancy of a nodule, comprising: receiving a medical image of a nodule of a patient; defining a patch surrounding the nodule in the medical image; and predicting a malignancy of the nodule in the patch using a trained deep image-to-image network, wherein the method further comprises training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules, wherein training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules further comprises: training the trained deep image-to-image network using additional training images depicting additional nodules and results of a radiologist examination of the additional nodules. receiving a medical image of a nodule of a patient; defining a patch surrounding the nodule in the medical image; and predicting a malignancy of the nodule in the patch using a trained deep image-to-image network, wherein the method further comprises training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules, wherein training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules further comprises: training the trained deep image-to-image network using additional training images depicting additional nodules and results of a radiologist examination of the additional nodules.