mhurhangee/patent-ind-claim-en huggingface dataset:
One or more computing devices for retrieving one or more output images, comprising: hardware logic circuitry , the hardware logic circuitry corresponding to: (a) one or more hardware processors that perform operations by executing machine-readable instructions stored in a memory , and/or (b) one or more other hardware logic components that perform operations using a task-specific collection of logic gates, the operations including: identifying a first-part image in response to at least one input signal provided by a user, using an input device ; receiving first-part image information that describes the first-part image ; using a generator component to transform the first-part image information into one or more instances of second-part generated image information, each instance of second-part generated image information complementing the first-part image information and being created by the generator component rather than being retrieved from a pre-existing empirical distribution of images, the generator component having been trained by a computer-implemented training system using a conditional generative adversarial network cGAN ; retrieving one or more second-part output images from a data store based on said one more instances of second-part generated image information; generating a user interface presentation that presents the first-part image and said one or more second-part output images , the user interface presentation including one or more graphical prompts that allow a user to select any of said one or more second-part output images ; and displaying the user interface presentation on a display device , for presentation to the user. identifying a first-part image in response to at least one input signal provided by a user, using an input device ; receiving first-part image information that describes the first-part image ; using a generator component to transform the first-part image information into one or more instances of second-part generated image information, each instance of second-part generated image information complementing the first-part image information and being created by the generator component rather than being retrieved from a pre-existing empirical distribution of images, the generator component having been trained by a computer-implemented training system using a conditional generative adversarial network cGAN ; retrieving one or more second-part output images from a data store based on said one more instances of second-part generated image information; generating a user interface presentation that presents the first-part image and said one or more second-part output images , the user interface presentation including one or more graphical prompts that allow a user to select any of said one or more second-part output images ; and displaying the user interface presentation on a display device , for presentation to the user.
A computer-implemented method for providing a fluid administration recommendation, the method comprising: receiving information relating to an expected change in cardiac output in a population group in response to administration of a fluid bolus; determining, using a processor, a patient-specific bias relating to the administration of a fluid bolus based upon prior responses of the patient to fluid administration, characterized in that the patient specific bias is determined by using a state similarity analysis of a subgroup of bolus log entries ; and generating , using the processor, a predicted change in cardiac output of the patient in response to administration of the fluid bolus based at least in part upon the information relating to the expected change and the patient-specific bias, wherein the state similarity analysis is accomplished by comparing, using a bolus log processor component , a current hemodynamic state of the patient to a hemodynamic state of the patient at the beginning of any previous boluses; and determining, using a log predictor component , a subgroup of prior hemodynamic states of the patient associated with prior administration of fluid to the patient , and determining the predicted change by calculating an average of changes in cardiac output associated with the subgroup of the prior hemodynamic states of the patient ; and providing a fluid administration recommendation based upon the predicted change to a user interface . receiving information relating to an expected change in cardiac output in a population group in response to administration of a fluid bolus; determining, using a processor, a patient-specific bias relating to the administration of a fluid bolus based upon prior responses of the patient to fluid administration, characterized in that the patient specific bias is determined by using a state similarity analysis of a subgroup of bolus log entries ; and generating , using the processor, a predicted change in cardiac output of the patient in response to administration of the fluid bolus based at least in part upon the information relating to the expected change and the patient-specific bias, wherein the state similarity analysis is accomplished by comparing, using a bolus log processor component , a current hemodynamic state of the patient to a hemodynamic state of the patient at the beginning of any previous boluses; and determining, using a log predictor component , a subgroup of prior hemodynamic states of the patient associated with prior administration of fluid to the patient , and determining the predicted change by calculating an average of changes in cardiac output associated with the subgroup of the prior hemodynamic states of the patient ; and providing a fluid administration recommendation based upon the predicted change to a user interface .
An atomizing unit , characterized by comprising: a tubular heating assembly ; and a liquid conducting member ; wherein the liquid conducting member is wrapped around an outer periphery of the tubular heating assembly or fitted to an inner peripheral surface of the tubular heating assembly ; wherein the tubular heating assembly comprises an annular connecting portion , characterized in that the tubular heating assembly further comprises at least two heating portions connected to one end surface of the connecting portion and arranged around the end surface, and electrode portions connected to one end of the heating portions away from the connecting portion ; wherein each side of two opposite sides of one heating portion faces to a corresponding side of its adjacent heating portion with a gap therebetween; and wherein the at least two heating portions are connected in series through the connecting portion . a tubular heating assembly ; and a liquid conducting member ; wherein the liquid conducting member is wrapped around an outer periphery of the tubular heating assembly or fitted to an inner peripheral surface of the tubular heating assembly ; wherein the tubular heating assembly comprises an annular connecting portion , characterized in that the tubular heating assembly further comprises at least two heating portions connected to one end surface of the connecting portion and arranged around the end surface, and electrode portions connected to one end of the heating portions away from the connecting portion ; wherein each side of two opposite sides of one heating portion faces to a corresponding side of its adjacent heating portion with a gap therebetween; and wherein the at least two heating portions are connected in series through the connecting portion .
An absorbable iron-based alloy implantable medical device, comprising: an iron-based alloy substrate and a degradable polymer disposed on the surface of the iron-based alloy substrate , further comprising a zinc-containing protector disposed on the surface of the iron-based alloy substrate , characterized in that the zinc-containing protector is arranged to corrode firstly in the acidic environment formed by the degradable polymer and to generate zinc phosphate, which has a corrosion prevention effect, such that the onset of corrosion of the iron-based alloy substrate is controllably delayed, wherein the zinc-containing protector is zinc and/or a zinc alloy, or a mixture of the zinc and/or the zinc alloy and a degradable adhesive, wherein the weight percentage of the zinc and/or zinc alloy is more than or equal to 20 percent and less than 100 percent. an iron-based alloy substrate and a degradable polymer disposed on the surface of the iron-based alloy substrate , further comprising a zinc-containing protector disposed on the surface of the iron-based alloy substrate , characterized in that the zinc-containing protector is arranged to corrode firstly in the acidic environment formed by the degradable polymer and to generate zinc phosphate, which has a corrosion prevention effect, such that the onset of corrosion of the iron-based alloy substrate is controllably delayed, wherein the zinc-containing protector is zinc and/or a zinc alloy, or a mixture of the zinc and/or the zinc alloy and a degradable adhesive, wherein the weight percentage of the zinc and/or zinc alloy is more than or equal to 20 percent and less than 100 percent.
Cardiac support system comprising a cylindrical structure extending in a longitudinal direction, which can be inserted through a catheter into the aorta or into a heart chamber and which has a tip, characterized in that the cylindrical structure contains a pump motor arranged in a motor housing and comprises an electronics module having an electronics portion , which electronics portion has a coupling portion that has a recess for receiving at least a portion of the pump motor, in which recess an electrically conductive contacting element is arranged for electrical contacting of the pump motor, which contacting element is embedded at least in part in a material of the electronics portion and is routed to an external face of the body of the electronics portion on a pin or a pad or a conductor track structure, the body of the electronics portion forming a fluid-tight module housing together with the coupling portion and the motor housing .
An optical system, comprising: a laser assembly in a hermetic enclosure; an optical modulator external to the hermetic enclosure, the optical modulator configured to receive an optical signal generated by the laser assembly and modulate the optical signal based on received data signals; a casing containing the hermetic enclosure and the optical modulator; and an electrical transmission element disposed between the hermetic enclosure and a sidewall of the casing, the electrical transmission element extending, at least partially, along a first axis that is substantially parallel to both (i) a second axis on which the optical signal propagates between the laser assembly and the optical modulator and (ii) the sidewall, wherein the electrical transmission element is configured to provide the data signals to the optical modulator, wherein the electrical transmission element extends into a region between the hermetic enclosure and the optical modulator, and wherein the electrical transmission element is flexible and curves in that region towards the optical modulator. a laser assembly in a hermetic enclosure; an optical modulator external to the hermetic enclosure, the optical modulator configured to receive an optical signal generated by the laser assembly and modulate the optical signal based on received data signals; a casing containing the hermetic enclosure and the optical modulator; and an electrical transmission element disposed between the hermetic enclosure and a sidewall of the casing, the electrical transmission element extending, at least partially, along a first axis that is substantially parallel to both (i) a second axis on which the optical signal propagates between the laser assembly and the optical modulator and (ii) the sidewall, wherein the electrical transmission element is configured to provide the data signals to the optical modulator, wherein the electrical transmission element extends into a region between the hermetic enclosure and the optical modulator, and wherein the electrical transmission element is flexible and curves in that region towards the optical modulator.
A method for controlling video output, comprising: receiving (S41), by a security controller, a configuration request sent by a decryption module located at a software layer in a trusted execution environment, TEE, wherein the configuration request comprises a high-bandwidth digital content protection, HDCP, requirement of a video; detecting (S42) in real time, by the security controller, whether an output resolution configured in a video display controller and a HDCP encryption status configured in an HDMI satisfy the HDCP requirement of the video, the method being characterized by , the security controller is located at a hardware layer in the TEE; and when the configured output resolution or the configured HDCP encryption status does not satisfy the HDCP requirement of the video, sending (S43), by the security controller, an instruction to the video display controller, to instruct the video display controller to stop output of the video. receiving (S41), by a security controller, a configuration request sent by a decryption module located at a software layer in a trusted execution environment, TEE, wherein the configuration request comprises a high-bandwidth digital content protection, HDCP, requirement of a video; detecting (S42) in real time, by the security controller, whether an output resolution configured in a video display controller and a HDCP encryption status configured in an HDMI satisfy the HDCP requirement of the video, the method being characterized by , the security controller is located at a hardware layer in the TEE; and when the configured output resolution or the configured HDCP encryption status does not satisfy the HDCP requirement of the video, sending (S43), by the security controller, an instruction to the video display controller, to instruct the video display controller to stop output of the video.
Cutting device for cutting off the ends of wire bundles comprising: - a main body , which has at least one chamber for receiving an end of a wire bundle , wherein said chamber is designed as an axially extending groove with a groove opening and two open groove ends; - at least one cutting element mounted displaceably in the main body , which cutting element can be moved perpendicularly to the axial extension of the groove and has a blade and also a cover ; wherein the blade closes off one of the groove ends when cutting the end of the wire bundle and the concurrently moving cover closes off the groove opening so that the groove , the blade and the cover form a closed collecting chamber when cutting the end of the wire bundle which collecting chamber functions as a collecting container for the cut-off piece of wire bundle. - a main body , which has at least one chamber for receiving an end of a wire bundle , wherein said chamber is designed as an axially extending groove with a groove opening and two open groove ends; - at least one cutting element mounted displaceably in the main body , which cutting element can be moved perpendicularly to the axial extension of the groove and has a blade and also a cover ;
A method of melt blowing a semi-crystalline polymer blend, comprising the steps of (a) melt blending in an extruder to form a polymer blend a first amount of a bioabsorbable polymer having a first molecular weight distribution; and a second amount of said bioabsorbable polymer having a second molecular weight distribution having a weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight distribution to said second molecular weight distribution measured by GPC is at least two to one; wherein a substantially homogeneous blend of said first and second amounts of said bioabsorbable polymer is formed in a ratio of between 50/50 to 95/5 weight/weight percent; (b) extruding the polymer blend through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form microfibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the microfibers to form a nonwoven web. (a) melt blending in an extruder to form a polymer blend a first amount of a bioabsorbable polymer having a first molecular weight distribution; and a second amount of said bioabsorbable polymer having a second molecular weight distribution having a weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight distribution to said second molecular weight distribution measured by GPC is at least two to one; wherein a substantially homogeneous blend of said first and second amounts of said bioabsorbable polymer is formed in a ratio of between 50/50 to 95/5 weight/weight percent; (b) extruding the polymer blend through a die assembly, the die assembly having a plurality of spinnerets, to form filament strands; (c) attenuating the filament strands with hot air to form microfibers; (d) collecting the microfibers on a collector screen; and (e) cooling and solidifying the microfibers to form a nonwoven web.
Dishwasher , in particular household dishwasher, with a dishwasher cavity for the cleaning of dishes, glasses, cutlery or similar items to be washed and with at least one heat pump, which comprises at least one condenser facility for the condensation of a heat transport medium circulating during operation, wherein the at least one condenser facility is located in the dishwasher cavity , characterised in that for cooling the condenser facility in a drying phase of the dishwasher , at least one air outlet opening facing towards the condenser facility is provided in the dishwasher cavity , in order to thus be able to cool the condenser facility with air from the air outlet opening during the drying phase.
A household appliance comprising an inner liner and a first and second support assembly wherein said support assembly comprises: a ladder rack - coupled to said inner liner and including first and second sidewalls coupled together via a connecting wall defining apertures ; a cantilever support coupled to the ladder rack through the apertures and extending outwardly therefrom; a rail assembly disposed on an upper surface of the cantilever support , a storage feature of the household appliance being coupled to the rail assembly and being operable between stowed and deployed positions and a spacer coupled to an outer surface of the cantilever support and abutting an inner liner surface ; characterised in that said support assembly further comprises a locking member coupled to the cantilever support and engaging the first and second sidewalls of the ladder rack . a ladder rack - coupled to said inner liner and including first and second sidewalls coupled together via a connecting wall defining apertures ; a cantilever support coupled to the ladder rack through the apertures and extending outwardly therefrom; a rail assembly disposed on an upper surface of the cantilever support , a storage feature of the household appliance being coupled to the rail assembly and being operable between stowed and deployed positions and a spacer coupled to an outer surface of the cantilever support and abutting an inner liner surface ; characterised in that said support assembly further comprises a locking member coupled to the cantilever support and engaging the first and second sidewalls of the ladder rack .
A finely divided binder in powder form consisting of a polyethylene glycol-polyvinyl alcohol graft polymer particles, wherein the particles have an average particle size D in the range of from 10 to 70 μm.
A gear unit housing for a planetary gear unit with a hollow-cylindrical housing body which has first internal gearing , and with a bearing flange which at least in portions engages coaxially in the housing body , so that a region of overlap is formed, wherein the housing body and the bearing flange are connected together by a material-formed bond in the region of overlap by laser transmission welding, characterised in that the bearing flange has second internal gearing in the region of overlap .
Method for thermal regulation of an electrochemical system comprising a stack of n electrochemical cells, n being an integer greater than or equal to 2, the electrochemicals cells being solid-oxide electrolyser cells or solid-oxide fuel cells, and at least n-1 interconnection plates interposed between the electrochemical cells, means for supplying gas to the electrochemical cells and means for collecting gases produced by the electrochemical cells, means for electrical connection of the system to the outside, wherein the electrochemical device also includes heating means (H, H1, H2, H3) integrated in the stack, said heating means including at least a first and a second heating element (E1, E2), said first and second heating elements being electrical, the first heating element being disposed in a first location in the stack and the second heating element being disposed in a second location in the stack, including: applying a first command to the first heating element and a second command to the second heating element, said first and second commands being determined so as to maintain a thermal gradient in the stack in the direction of the stack substantially at a given value.
Component for attaching to a safety harness for a human user for at least partially keeping free the femoral vein of the user , wherein the component comprises: a carrier structure ; two leg strap pads attached to the carrier structure at such a distance to each other, that a portion of the carrier structure remaining between both leg strap pads , in a state of the component being attached to the safety harness , keeps free the femoral vein of the user at least partially, when the user has put on the safety harness , wherein the portion is free of leg strap pads, or wherein the portion comprises a further leg strap pad made of flexible material, with less thickness perpendicular to the direction of extension of the carrier structure than both leg strap pads in the part, in which they are adjacent to the further leg strap pad , or wherein the portion comprises a further leg strap pad made of flexible material, whose flexible material is softer than the material of the neighboring leg strap pad ; a detachable fixing mechanism which is attached to or attachable to the carrier structure for detachably fixing the component to the safety harness , wherein both leg strap pads are formed in such a tapered manner, that their front faces are opposing each other while forming in between the portion that remains between both leg strap pads . a carrier structure ; two leg strap pads attached to the carrier structure at such a distance to each other, that a portion of the carrier structure remaining between both leg strap pads , in a state of the component being attached to the safety harness , keeps free the femoral vein of the user at least partially, when the user has put on the safety harness , wherein the portion is free of leg strap pads, or wherein the portion comprises a further leg strap pad made of flexible material, with less thickness perpendicular to the direction of extension of the carrier structure than both leg strap pads in the part, in which they are adjacent to the further leg strap pad , or wherein the portion comprises a further leg strap pad made of flexible material, whose flexible material is softer than the material of the neighboring leg strap pad ; a detachable fixing mechanism which is attached to or attachable to the carrier structure for detachably fixing the component to the safety harness , wherein both leg strap pads are formed in such a tapered manner, that their front faces are opposing each other while forming in between the portion that remains between both leg strap pads .