mhurhangee/ep-ind-claims huggingface dataset:
Use of a fuel composition to reduce wear in a fuel delivery system of an engine, wherein the fuel composition comprises gasoline and from 10 to 500 ppm by weight based on a total weight of the fuel composition of an alkoxylated quaternary ammonium salt derived from an epoxide, a tertiary amine, and an optional protonating agent,
A viscose solution or gel formulation for topical treatment of androgenetic alopecia comprising: - minoxidil as active principle in a concentration comprised between 0.5% and 6% w/w; - hydroxypropyl β-cyclodextrin as solubilizing agent in a concentration comprised between 5% and 45% w/w, wherein the substitution degree of the hydroxypropyl β-cyclodextrin is 4.5; - at least an hydrophilic polymer selected among alginate, carbomer, polyacrylate, cellulose derivate, gelatine and pectine in a concentration comprised between 0.2% and 3% w/w; - water between 42% and 85% w/w; optionally together with one or more pharmaceutically acceptable excipients and/or adjuvants, characterized by the absence of the cosolvents ethanol and propylene glycol. - minoxidil as active principle in a concentration comprised between 0.5% and 6% w/w; - hydroxypropyl β-cyclodextrin as solubilizing agent in a concentration comprised between 5% and 45% w/w, wherein the substitution degree of the hydroxypropyl β-cyclodextrin is 4.5; - at least an hydrophilic polymer selected among alginate, carbomer, polyacrylate, cellulose derivate, gelatine and pectine in a concentration comprised between 0.2% and 3% w/w; - water between 42% and 85% w/w; optionally together with one or more pharmaceutically acceptable excipients and/or adjuvants, characterized by the absence of the cosolvents ethanol and propylene glycol.
A computer-implemented method comprising: receiving one or more input medical images of a vessel of a patient; performing a plurality of vessel assessment tasks for assessing the vessel using a machine learning based model trained using multi-task learning based on shared features extracted from the one or more input medical images, the plurality of vessel assessment tasks comprising segmentation of reference walls of the vessel from the one or more input medical images and segmentation of lumen of the vessel from the one or more input medical images, wherein the machine learning based model comprises an encoder for encoding the one or more input medical images into the shared features and a plurality of decoders each for decoding the shared features to perform a respective one of the plurality of vessel assessment tasks, and wherein the reference walls of the vessel refer to the walls of the vessel when healthy, excluding any disease or abnormalities on the walls of the vessel; and outputting results of the plurality of vessel assessment tasks, wherein the machine learning based model is trained for the segmentation of the reference wall of the vessel and the segmentation of the lumen of the vessel based on regularization for consistency between ground truth stenosis grading and stenosis grading based on results of the segmentation of the reference walls of the vessel and results of the segmentation of the lumen. receiving one or more input medical images of a vessel of a patient; performing a plurality of vessel assessment tasks for assessing the vessel using a machine learning based model trained using multi-task learning based on shared features extracted from the one or more input medical images, the plurality of vessel assessment tasks comprising segmentation of reference walls of the vessel from the one or more input medical images and segmentation of lumen of the vessel from the one or more input medical images, wherein the machine learning based model comprises an encoder for encoding the one or more input medical images into the shared features and a plurality of decoders each for decoding the shared features to perform a respective one of the plurality of vessel assessment tasks, and wherein the reference walls of the vessel refer to the walls of the vessel when healthy, excluding any disease or abnormalities on the walls of the vessel; and outputting results of the plurality of vessel assessment tasks, wherein the machine learning based model is trained for the segmentation of the reference wall of the vessel and the segmentation of the lumen of the vessel based on regularization for consistency between ground truth stenosis grading and stenosis grading based on results of the segmentation of the reference walls of the vessel and results of the segmentation of the lumen.
A shunt breaking system comprising: a primary circuit consisting of a stationary contact and a moving contact, said stationary contact being connected to an incoming busbar and said moving contact is connected to an outgoing busbar; a secondary circuit consisting of a vacuum interrupter electrically connected to the stationary contact on a terminal with suitable connection means; a linkage mechanism comprising of multiple linkage means supported on a linkage support having top linkage means connected to a pulling pin at its first end and bottom linkage means at its second end with the help of sliding pins slidable into slits provided in the linkage support, the second end of the bottom linkage means being connected by a stationary pin fixedly placed in a recess provided in a fixed support, characterized in that a collar, configured of passing through a bore in the linkage support, is connected to the bottom linkage means with the stationary pin at a collar first end and a moving contact end of the vacuum interrupter at a collar second end, the moving contact end is electrically connected to a pallet contact by means of a flexible wire, said pallet contact interacting with a protrusion protruding out of an arm of the moving contact and comprising a first profiled region for interacting with a second profiled region of the moving contact. a primary circuit consisting of a stationary contact and a moving contact, said stationary contact being connected to an incoming busbar and said moving contact is connected to an outgoing busbar; a secondary circuit consisting of a vacuum interrupter electrically connected to the stationary contact on a terminal with suitable connection means; a linkage mechanism comprising of multiple linkage means supported on a linkage support having top linkage means connected to a pulling pin at its first end and bottom linkage means at its second end with the help of sliding pins slidable into slits provided in the linkage support, the second end of the bottom linkage means being connected by a stationary pin fixedly placed in a recess provided in a fixed support, a collar, configured of passing through a bore in the linkage support, is connected to the bottom linkage means with the stationary pin at a collar first end and a moving contact end of the vacuum interrupter at a collar second end, the moving contact end is electrically connected to a pallet contact by means of a flexible wire, said pallet contact interacting with a protrusion protruding out of an arm of the moving contact and comprising a first profiled region for interacting with a second profiled region of the moving contact.
A dental measuring assembly kit comprising an elongated stem defining a longitudinal axis between a proximal end and a distal end of said stem; a plurality of measuring abutments (100, 120, 140), each measuring abutment configured to be received over said proximal end of said stem and to axially slide over said stem; wherein a distal segment of said stem comprises scale markings denoting a height of a distal end of said measuring abutment relative to said stem; and wherein each measuring abutment comprises an inclined surface disposed at a different angle relative to said longitudinal axis of the stem; characterized in that each said measuring abutment is configured to snugly fit said stem, with a wobbling of the abutment relative to the stem of less than 2 degrees. an elongated stem defining a longitudinal axis between a proximal end and a distal end of said stem; a plurality of measuring abutments (100, 120, 140), each measuring abutment configured to be received over said proximal end of said stem and to axially slide over said stem; wherein a distal segment of said stem comprises scale markings denoting a height of a distal end of said measuring abutment relative to said stem; and wherein each measuring abutment comprises an inclined surface disposed at a different angle relative to said longitudinal axis of the stem; characterized in that each said measuring abutment is configured to snugly fit said stem, with a wobbling of the abutment relative to the stem of less than 2 degrees.
Optical communication system (100, 200) for communicating data via an optical fiber (101, 201), the optical communication system (100, 200) comprising: a laser diode (103, 203) that is coupled to the optical fiber (101, 201) on the transmitter side (102, 202), a control unit (104, 204) that is coupled to the laser diode (103, 203) and that is configured to receive source data (105, 106, 107, 205, 206, 207) for a plurality of communication links (108, 109, 110, 208, 209, 210), characterized in that the control unit (104, 204) is configured to control the laser diode (103, 203) to cyclically switch a mode which refers to the light of a predetermined wavelength (M1, M2, M3, M4, M5) and to modulate in every mode (M1, M2, M3, M4, M5) laser light that is generated by the laser diode (103, 203) based on source data (105, 106, 107, 205, 206, 207) for a communication link (108, 109, 110, 208, 209, 210) that corresponds to the respective mode (M1, M2, M3, M4, M5); and that an optical demultiplexer (112, 212) on a receiver side (111, 211) is coupled to the optical fiber (101, 201) on the receiver side (111, 211), wherein the demultiplexer is configured to provide incoming light of different predetermined wavelengths each to a respective receiver (116, 117, 118, 216, 217, 218), wherein the optical demultiplexer (112, 212) comprises an output port (113, 114, 115, 213, 214, 215) for every mode (M1, M2, M3, M4, M5) that is used by the control unit (104, 204) to transmit the source data (105, 106, 107, 205, 206, 207). a laser diode (103, 203) that is coupled to the optical fiber (101, 201) on the transmitter side (102, 202), a control unit (104, 204) that is coupled to the laser diode (103, 203) and that is configured to receive source data (105, 106, 107, 205, 206, 207) for a plurality of communication links (108, 109, 110, 208, 209, 210), characterized in that the control unit (104, 204) is configured to control the laser diode (103, 203) to cyclically switch a mode which refers to the light of a predetermined wavelength (M1, M2, M3, M4, M5) and to modulate in every mode (M1, M2, M3, M4, M5) laser light that is generated by the laser diode (103, 203) based on source data (105, 106, 107, 205, 206, 207) for a communication link (108, 109, 110, 208, 209, 210) that corresponds to the respective mode (M1, M2, M3, M4, M5); and that an optical demultiplexer (112, 212) on a receiver side (111, 211) is coupled to the optical fiber (101, 201) on the receiver side (111, 211), wherein the demultiplexer is configured to provide incoming light of different predetermined wavelengths each to a respective receiver (116, 117, 118, 216, 217, 218), wherein the optical demultiplexer (112, 212) comprises an output port (113, 114, 115, 213, 214, 215) for every mode (M1, M2, M3, M4, M5) that is used by the control unit (104, 204) to transmit the source data (105, 106, 107, 205, 206, 207).
Method for detecting individual particles in a flowable sample, comprising the steps of: hydrodynamically focusing the sample, the sample being opaque to at least a first range of wavelengths of lightwaves; compressing the hydrodynamically focused sample by means of an optical cuvette (102, 902) comprising a converging part, which comprises a flow channel of which the width smoothly changes in a first dimension from the point of entrance of the cuvette to the point at which a flat part of the cuvette commences, the optical cuvette further comprising a flat part, which comprises a flow channel of which the width is narrow and substantially constant in said first dimension, and a sample introduction part positioned in the converging channel, to create a compressed sample which is transparent in the first dimension to at least one of the wavelengths of lightwaves to which the sample was previously opaque prior to being compressed; measuring transparency of the compressed sample in the flat part of the cuvette in the first dimension; when a predetermined transparency value is not obtained, adjusting the thickness of the compressed sample in the flat part of the cuvette in the first dimension by changing the position of the sample introduction part in the converging channel; and when a predetermined transparency value is obtained, identifying characteristics of individual particles contained in the compressed sample in the flat part of the cuvette. hydrodynamically focusing the sample, the sample being opaque to at least a first range of wavelengths of lightwaves; compressing the hydrodynamically focused sample by means of an optical cuvette (102, 902) comprising a converging part, which comprises a flow channel of which the width smoothly changes in a first dimension from the point of entrance of the cuvette to the point at which a flat part of the cuvette commences, the optical cuvette further comprising a flat part, which comprises a flow channel of which the width is narrow and substantially constant in said first dimension, and a sample introduction part positioned in the converging channel, to create a compressed sample which is transparent in the first dimension to at least one of the wavelengths of lightwaves to which the sample was previously opaque prior to being compressed; measuring transparency of the compressed sample in the flat part of the cuvette in the first dimension; when a predetermined transparency value is not obtained, adjusting the thickness of the compressed sample in the flat part of the cuvette in the first dimension by changing the position of the sample introduction part in the converging channel; and when a predetermined transparency value is obtained, identifying characteristics of individual particles contained in the compressed sample in the flat part of the cuvette.
A method comprising: obtaining, by a terrestrial scheduler of a server system, configuration data for one or more satellites associated with the server system, wherein each satellite from among the one or more satellites comprises an aerial scheduler configured to exchange communications with the terrestrial scheduler; identifying, by the terrestrial scheduler, i) multiple objectives corresponding to a task to be performed using the satellites, and ii) resource parameters associated with executing the task to be performed using the satellites; computing, by the terrestrial scheduler, a score for each objective included in the multiple objectives based on the resource parameters and the configuration data for the one or more satellites, each score representing a prioritization of a corresponding objective from among the multiple objectives; assigning, by the terrestrial scheduler, the multiple objectives to one or more of the satellites based on the scores for the objectives; and providing, by the terrestrial scheduler and to the aerial schedulers of the one or more satellites, instructions that, when received by the one or more satellites, cause the one or more satellites to execute the task according to the assignment of the objectives to the one or more satellites, wherein the instructions cause the one or more satellites to configure antennas parameters or to configure radio tuning parameters of the one or more satellites. obtaining, by a terrestrial scheduler of a server system, configuration data for one or more satellites associated with the server system, wherein each satellite from among the one or more satellites comprises an aerial scheduler configured to exchange communications with the terrestrial scheduler; identifying, by the terrestrial scheduler, i) multiple objectives corresponding to a task to be performed using the satellites, and ii) resource parameters associated with executing the task to be performed using the satellites; computing, by the terrestrial scheduler, a score for each objective included in the multiple objectives based on the resource parameters and the configuration data for the one or more satellites, each score representing a prioritization of a corresponding objective from among the multiple objectives; assigning, by the terrestrial scheduler, the multiple objectives to one or more of the satellites based on the scores for the objectives; and providing, by the terrestrial scheduler and to the aerial schedulers of the one or more satellites, instructions that, when received by the one or more satellites, cause the one or more satellites to execute the task according to the assignment of the objectives to the one or more satellites, wherein the instructions cause the one or more satellites to configure antennas parameters or to configure radio tuning parameters of the one or more satellites.
A sorbent tube holder (100; 200; 300) for securing a sorbent tube in position in a fluid-flow system, the sorbent tube holder (100; 200; 300) comprising: a holder frame having first and second pipe connection elements (136; 236; 336) which define a tube mounting axis; first and second mounting sleeve portions (126a, 126b) each having first and second opposed ends, the first and second mounting sleeve portions (126a, 126b) being releasably engageable with the first and second pipe connection elements respectively; a sorbent tube engaged with the first and second mounting sleeve portions (126a, 126b); and the holder frame (130; 230; 330) being configured to prevent or limit movement of the first and second mounting sleeve portions (126a, 126b) perpendicular to the tube mounting axis (A-A), wherein the tube retaining force is a clamping force acting perpendicular to the tube mounting axis; and characterised by; each of the first and second mounting sleeve portions (126a, 126b) including a clamping element which provides a releasable tube retaining force. a holder frame having first and second pipe connection elements (136; 236; 336) which define a tube mounting axis; first and second mounting sleeve portions (126a, 126b) each having first and second opposed ends, the first and second mounting sleeve portions (126a, 126b) being releasably engageable with the first and second pipe connection elements respectively; a sorbent tube engaged with the first and second mounting sleeve portions (126a, 126b); and the holder frame (130; 230; 330) being configured to prevent or limit movement of the first and second mounting sleeve portions (126a, 126b) perpendicular to the tube mounting axis (A-A), wherein the tube retaining force is a clamping force acting perpendicular to the tube mounting axis; and characterised by;
A round baler with a housing enclosing a bale chamber, which comprises a base section, an upper tailgate section which can be raised out of a baling position and a lower tailgate section, and with a bale wrapping device which comprises a wrapping table disposed behind the housing, characterized in that the lower tailgate section can be lowered in order to eject a bale from the bale chamber, in the lowered position of the lower tailgate section, the bale can be supported by a front edge of the wrapping table and a vertically movable support (14', 24, 34), and the support (14', 24, 34) can be raised in order to transfer the bale into a wrapping position on the wrapping table.
Vented liner for milking plants, comprising: - a head comprising an orifice forming the mouthpiece for the teat of the animal to be milked; - a body consisting of the central portion of the vented liner in which the teat is received during milking; - a milk tube consisting of the portion of the vented liner that is located opposite to the head; - an insert insertable into the head of the vented liner, said insert comprising a shaft, an insert head connected to the shaft, and a through-hole formed longitudinally inside the shaft and passing through the insert head and the shaft for allowing controlled, constant entry of air into the head of the vented liner; characterized in that on the shaft there is provided a thread adapted to be screwed into the head of the vented liner and penetrate into the rubber of which the liner is made. - a head comprising an orifice forming the mouthpiece for the teat of the animal to be milked; - a body consisting of the central portion of the vented liner in which the teat is received during milking; - a milk tube consisting of the portion of the vented liner that is located opposite to the head; - an insert insertable into the head of the vented liner, said insert comprising a shaft, an insert head connected to the shaft, and a through-hole formed longitudinally inside the shaft and passing through the insert head and the shaft for allowing controlled, constant entry of air into the head of the vented liner;
A method for coordination of resources in a wireless communication system, comprising: identifying (802, 804) a first network cell and a set of control resources associated with the network cell; allocating for a second cell a set of control resources, wherein at least a portion of the allocated set of control resources overlaps at least a portion of the set of control resources associated with the identified network cell; and selecting control resources for subsequent use from among the allocated set of control resources such that the selected control resources are substantially free from interference caused by the set of control resources associated with the identified network cell, wherein the set of control resources associated with the identified network cell corresponds to a user equipment, UE-specific and Radio Resource Control/Layer 3, RRC/L 3, configurable control region, wherein the UE-specific and RRC/L 3 configurable control region comprises resources for one or more of Channel Quality Indicator, CQI, Scheduling Request, SR, and persistent Acknowledgement, ACK, transmission, and wherein the selected control resources for subsequent use are orthogonal to the set of control resources associated with the identified network and wherein the allocated set of control resources includes one or more of CQI, SR, and persistent ACK channels. identifying (802, 804) a first network cell and a set of control resources associated with the network cell; allocating for a second cell a set of control resources, wherein at least a portion of the allocated set of control resources overlaps at least a portion of the set of control resources associated with the identified network cell; and selecting control resources for subsequent use from among the allocated set of control resources such that the selected control resources are substantially free from interference caused by the set of control resources associated with the identified network cell, wherein the set of control resources associated with the identified network cell corresponds to a user equipment, UE-specific and Radio Resource Control/Layer 3, RRC/L 3, configurable control region, wherein the UE-specific and RRC/L 3 configurable control region comprises resources for one or more of Channel Quality Indicator, CQI, Scheduling Request, SR, and persistent Acknowledgement, ACK, transmission, and wherein the selected control resources for subsequent use are orthogonal to the set of control resources associated with the identified network and wherein the allocated set of control resources includes one or more of CQI, SR, and persistent ACK channels.