mhurhangee/ep-ind-claims huggingface dataset:
A system for initializing a continuous analyte sensor, comprising: a sensor data module operatively linked to a continuous analyte sensor and configured to receive a sensor data stream, including one or more sensor data points, from the sensor; a reference input module adapted to obtain one or more reference data points; a processor module associated with the sensor data module and the reference input module and programmed to match reference data points with time-matched sensor data points to form a calibration set including at least one matched data pair; and a stability module associated with the processor module programmed to determine the stability of the continuous analyte sensor, characterised in that the stability module evaluates stability by monitoring the frequency content of the sensor data stream over a predetermined amount of time by comparing a template or templates with actual sensor data, wherein a predetermined amount of agreement between the template or the templates and the actual sensor data is indicative of sensor stability, and wherein the template or templates reflect acceptable levels of glucose physiology. a sensor data module operatively linked to a continuous analyte sensor and configured to receive a sensor data stream, including one or more sensor data points, from the sensor; a reference input module adapted to obtain one or more reference data points; a processor module associated with the sensor data module and the reference input module and programmed to match reference data points with time-matched sensor data points to form a calibration set including at least one matched data pair; and a stability module associated with the processor module programmed to determine the stability of the continuous analyte sensor, characterised in that the stability module evaluates stability by monitoring the frequency content of the sensor data stream over a predetermined amount of time by comparing a template or templates with actual sensor data, wherein a predetermined amount of agreement between the template or the templates and the actual sensor data is indicative of sensor stability, and wherein the template or templates reflect acceptable levels of glucose physiology.
A method for operating an electrically driven industrial truck as claimed in one of claims 9 to 15, comprising the following steps: - charging a battery with a charging current which is generated by a traction drive motor during regenerative deceleration of the industrial truck, characterized by the following steps: - determining an inclination angle of the industrial truck by means of an acceleration sensor or an angle sensor at least relative to a horizontal plane, - determining a state of charge of the battery on the basis of a measured battery voltage, - restricting the driving speed of the industrial truck to a maximum driving speed (v max) which is less than a maximum permitted driving speed during the operation of the industrial truck on level ground, if the state of charge exceeds a predetermined maximum state of charge and the inclination angle exceeds a predetermined maximum inclination angle, in order to avoid the production of high battery voltages by the charging of the battery during regenerative deceleration of the industrial truck. - charging a battery with a charging current which is generated by a traction drive motor during regenerative deceleration of the industrial truck, characterized by the following steps: - determining an inclination angle of the industrial truck by means of an acceleration sensor or an angle sensor at least relative to a horizontal plane, - determining a state of charge of the battery on the basis of a measured battery voltage, - restricting the driving speed of the industrial truck to a maximum driving speed (v max) which is less than a maximum permitted driving speed during the operation of the industrial truck on level ground, if the state of charge exceeds a predetermined maximum state of charge and the inclination angle exceeds a predetermined maximum inclination angle, in order to avoid the production of high battery voltages by the charging of the battery during regenerative deceleration of the industrial truck.
A microfluidic device for continuous monitoring of toxin levels in water, the device comprising a plurality of colonies or cultures of microorganism cells in an array connected in parallel at predetermined addressable locations in form of strain banks that each comprise trapping chambers in parallel connected to a microfluidic channel that is configured for continuous media delivery, each trapping chamber being connected by a feeder channel to a reservoir, wherein the pitch and format of the reservoir is compatible with spotting of microorganism cells by a robotic pin tool or liquid handling instrument, wherein the trapping chamber, feeder channel and reservoir are configured so that the colonies or cultures of microorganism cells spotted within the reservoir can expand via growth through the feeder channel into the trapping chamber, wherein (i) each of the cells within the colonies or cultures comprises an expression cassette comprising a biosensor or promoter operably linked to a polynucleotide encoding a detectable agent, (ii) transcription of the polynucleotide is modulated by the presence of an analyte.
Display device including a display cell, which includes a bottom substrate, a transparent top substrate, a frame sealing of the substrates defining a closed cavity in which there is a substance, whose optical properties change in the presence of an electric field, and a matrix of electrodes arranged in lines (L0 to L8) and columns (C0 to C68) inside the cavity to define the display cell pixels, the device also including a control circuit for the lines and columns (2, 3, 4, 5, 6) for displaying data on the display cell, in complete display mode all of the lines and columns being addressed at several voltage levels by successive line-by-line multiplexing, characterized in that in low power partial display mode, at least one group of lines (L0, L8) is connected so as to be controlled by a same line control signal from the matrix control circuit, in that the lines (L1 to L7) of an active zone of the display cell and the group of lines are addressed simultaneously by an active addressing technique at two voltage levels, a first voltage level defining logic level 0 and a second voltage level defining logic level 1, said second voltage level being higher than the threshold voltage of the display device, but less than two times higher than said threshold voltage, and in that the column control signals of the active zone are each determined on the basis of the N line control signals, which include a series of N-bit binary line selection words, which are compared bit-by-bit in one complete cycle to an N-bit binary data word representative of the state of the pixels of each column.
A method for enriching microvesicles (exosomes) from a sample and subsequent extraction / isolation of ingredients contained in said microvesicles, preferably RNA, characterized by the following steps: a) Addition of an aqueous solution of a salt of a polyuronic acid to the sample b) addition of a substance which induces gel formation / pellet formation of the polyuronic acid c) mixing of the sample and incubation d) centrifugation of the sample and removal of the supernatant e) dissolving the pellet or the gel piece f) isolation of the ingredients, preferably RNA, in manner known per se. a) Addition of an aqueous solution of a salt of a polyuronic acid to the sample b) addition of a substance which induces gel formation / pellet formation of the polyuronic acid c) mixing of the sample and incubation d) centrifugation of the sample and removal of the supernatant e) dissolving the pellet or the gel piece f) isolation of the ingredients, preferably RNA, in manner known per se.
A method for improving the fireproofing performance of a potential burning damage area of a vehicle body by simulating calculation, characterized by the steps of: determining the potential burning damage area of the vehicle body; calculating a deformation amount of the vehicle body given that a predetermined high temperature load is exerted on the potential burning damage area; and on the basis of the deformation amount of the vehicle body, judging whether a space between a underbody suspension parts and rail surface satisfies traveling capability requirements at a safe speed after the deformation of the vehicle body; if not, performing fireproofing treatment on the potential burning damage area of the vehicle body, the manner of the performing fireproofing treatment to the potential burning damage area of the vehicle body comprises: sticking non-metal fireproof material of heat expansion onto the potential burning damage area of the vehicle body to restrain the deformation of the vehicle body arising from temperature rise of a fire, and the travelling capability requirements at a safe speed is to travel at a speed of 40km/h for 15 minutes. determining the potential burning damage area of the vehicle body; calculating a deformation amount of the vehicle body given that a predetermined high temperature load is exerted on the potential burning damage area; and on the basis of the deformation amount of the vehicle body, judging whether a space between a underbody suspension parts and rail surface satisfies traveling capability requirements at a safe speed after the deformation of the vehicle body; if not, performing fireproofing treatment on the potential burning damage area of the vehicle body, the manner of the performing fireproofing treatment to the potential burning damage area of the vehicle body comprises: sticking non-metal fireproof material of heat expansion onto the potential burning damage area of the vehicle body to restrain the deformation of the vehicle body arising from temperature rise of a fire, and the travelling capability requirements at a safe speed is to travel at a speed of 40km/h for 15 minutes.
Multilayer structure, particularly intended to be incorporated into a security document, comprising: - at least one watermark or pseudo-watermark, - at least one scattering layer, with this at least partially overlapping the watermark or pseudo-watermark, with the scattering layer comprising a polymer matrix which has a refractive index n matrix, and scattering particles being bound by the matrix, with a refractive index n particles different to that of the matrix, with a disparity |n matrix - n particles | greater than or equal to 0.01, or better to 0.03, with the polydispersity index of the scattering particles being comprised between 0.08 and 0.7. - at least one watermark or pseudo-watermark, - at least one scattering layer, with this at least partially overlapping the watermark or pseudo-watermark, with the scattering layer comprising a polymer matrix which has a refractive index n matrix, and scattering particles being bound by the matrix, with a refractive index n particles different to that of the matrix, with a disparity |n matrix - n particles | greater than or equal to 0.01, or better to 0.03, with the polydispersity index of the scattering particles being comprised between 0.08 and 0.7.
A composition for preparing a carbon dioxide external preparation for skin and mucosa comprising; a substance generating an acid after being hydrolyzed, a carbonate, a thickener, water, a gelating agent being gelated by calcium ion, and a water-insoluble or poorly soluble calcium salt as essential components, which are provided in a form consisting of a component (a) which is a granular material, and a component (b) which is water or a viscous material, wherein (i) when (b) is water the substance generating an acid after being hydrolyzed, the carbonate, the thickener, the gelating agent being gelated by calcium ion, and the water-insoluble or poorly soluble calcium salt are provided in the component (a) granular material which is to be mixed with the component (b) water just before use; or (ii) when (b) is a viscous material the substance generating an acid after being hydrolyzed is provided in the component (a) granular material, which is to be mixed with the component (b) viscous material comprising the thickener and the water, and wherein the carbonate, the gelating agent being gelated by calcium ion, and the water-insoluble or poorly soluble calcium salt are contained either in the component (a) granular material or in the component (b) viscous material, wherein the substance generating an acid after being hydrolyzed is one or more selected from glucono-delta-lactone, pantolactone, D,L- or L-lactide (3,6-dimethyl-1,4-dioxane-2,5-dione), D,L- or L-glycolide, phthalic anhydride, maleic anhydride, and succinic anhydride; and wherein the mixing ratios of the substance generating an acid after being hydrolyzed is 0.5 to 40 mass %, of the carbonate is 0.1 to 10 mass %, of the thickener is 0.5 to 10 mass %, of the water is 40 to 95 mass %, of the gelating agent is 0.5 to 10 mass %, and the water-insoluble or poorly soluble calcium salt is 0.1 to 5 mass %, relative to the total amount of the composition. (i) when (b) is water the substance generating an acid after being hydrolyzed, the carbonate, the thickener, the gelating agent being gelated by calcium ion, and the water-insoluble or poorly soluble calcium salt are provided in the component (a) granular material which is to be mixed with the component (b) water just before use; or (ii) when (b) is a viscous material the substance generating an acid after being hydrolyzed is provided in the component (a) granular material, which is to be mixed with the component (b) viscous material comprising the thickener and the water, and wherein the carbonate, the gelating agent being gelated by calcium ion, and the water-insoluble or poorly soluble calcium salt are contained either in the component (a) granular material or in the component (b) viscous material,
A deployment device for interfacing an implantable device with an anatomical structure, the deployment device comprising: a sheath including a deployment section for deploying the implantable device to an interface position relative to the anatomical structure, and an implantable section for coupling the deployment section to the implantable device; a detachment tool; characterized in that the device further comprises a shape sensor for guiding the implantable device to the interface position, the shape sensor including a deployment segment extending at least partially through the deployment section of the sheath, and an implantable segment attached to the deployment segment and extending at least partially through the implantable section of the sheath; and wherein said detachment tool is disposed relative to the implantable section of the sheath, the detachment tool being operable to detach at least a portion of the implantable segment of the shape sensor from the deployment segment of the shape sensor. a sheath including a deployment section for deploying the implantable device to an interface position relative to the anatomical structure, and an implantable section for coupling the deployment section to the implantable device; a detachment tool; characterized in that the device further comprises a shape sensor for guiding the implantable device to the interface position, the shape sensor including a deployment segment extending at least partially through the deployment section of the sheath, and an implantable segment attached to the deployment segment and extending at least partially through the implantable section of the sheath; and wherein said detachment tool is disposed relative to the implantable section of the sheath, the detachment tool being operable to detach at least a portion of the implantable segment of the shape sensor from the deployment segment of the shape sensor.
Multi-core device for an electronic equipment, comprising at least two cores (Ci) arranged to execute different softwares (Si), including a first software and a second software, stored into storing means including a primary memory, a secondary memory arranged for durably storing the softwares (Si) to be executed by each of said cores (Ci), and an external memory, wherein the second software is different from the first software, wherein at least one of said cores (Ci) is associated with i) the primary memory of the RAM type, arranged for durably storing, without power consumption, the second software to be executed by the at least one of said cores once said second software has been transferred from said secondary memory into the primary memory along with data associated with said second software when it is executed, and ii) a first memory interface coupled to said primary memory and arranged to allow said at least one core to execute said second software durably stored into said primary memory and to access the data associated with this second software when it is executed, wherein another one of said cores (Ci) is associated with said secondary memory, and wherein said another one of said cores is associated with i) said external memory of the RAM type, which is coupled to said secondary memory and is capable of dynamically storing the first software to be executed by said another of said cores once said first software has been transferred from said secondary memory, and ii) a second memory interface coupled to said external memory and arranged to allow said another one of said cores to execute the first software stored in said external memory, wherein said multi-core device is configured such that the second software is transferred or downloaded from the secondary memory into the primary memory at the very first boot of the electronic equipment or each time the electronic equipment wants or needs to update it, so, once the transfer of the second software has been performed, the at least one core becomes autonomous with regards to the another core and therefore can execute the second software in an independent manner, and thus no time is lost for transferring the second software at each electronic equipment boot.
A pullout guide for drawers having a slide rail, on which a catch hook is situated for securing the drawer on the slide rail, the catch hook being designed as a separate element fixed so it is secured against displacement on the slide rail, whereby support elements for supporting the catch hook on the slide rail are assigned to the catch hook, characterized in that the support elements are implemented as support legs (10, 11, 38, 39), which integrally adjoin one leg of the catch hook, and are bent relative thereto into a position which supports this leg on the slide rail, whereby the support legs (10, 11, 38, 39) are bent in a direction facing away from the hook section of the catch hook.
A clip device for use in endoscopic medical procedures comprising: a clip having a plurality of arms (1640, 1650) each having a proximal end and a distal end, wherein the proximal end of each of the arms is joined to a first retainer and extends distally therefrom, wherein each of the arms are spaced apart from each other when the clip is in an open position and adjacent to each other when the clip is in a closed position; at least one lumen (1643, 1553) disposed within at least a first of the plurality of arms, wherein the lumen spans from the proximal end to the distal end of the first arm; and at least one outlet bore (1644, 1654) formed in the distal end of the first arm, wherein the distal ends of the plurality of arms are adapted to engage tissue in the closed position, and wherein a sclerosing agent is adapted to be delivered to the tissue via the lumen and the outlet bore in the first arm, characterised in that the first retainer comprises a lumen formed therein, the lumen of the first retainer being in fluid communication with the lumen disposed within the first of the plurality of arms. a clip having a plurality of arms (1640, 1650) each having a proximal end and a distal end, wherein the proximal end of each of the arms is joined to a first retainer and extends distally therefrom, wherein each of the arms are spaced apart from each other when the clip is in an open position and adjacent to each other when the clip is in a closed position; at least one lumen (1643, 1553) disposed within at least a first of the plurality of arms, wherein the lumen spans from the proximal end to the distal end of the first arm; and at least one outlet bore (1644, 1654) formed in the distal end of the first arm, wherein the distal ends of the plurality of arms are adapted to engage tissue in the closed position, and wherein a sclerosing agent is adapted to be delivered to the tissue via the lumen and the outlet bore in the first arm, characterised in that the first retainer comprises a lumen formed therein, the lumen of the first retainer being in fluid communication with the lumen disposed within the first of the plurality of arms.
System for sowing a plurality of seeds, comprising: a separating device for separating a single seed relative to a remainder of the plurality of seeds; an optical recognition system for recognizing the separated seed; a robot arm device for picking up the separated seed and for sowing the picked-up seed; a control unit for controlling the separating device, the optical recognition system and the robot arm device; a supply device for supplying the seeds in a container, characterised in that the control unit is configured to control the robot arm device to engage the container and to carry the seeds out of the container and to the separating device. a separating device for separating a single seed relative to a remainder of the plurality of seeds; an optical recognition system for recognizing the separated seed; a robot arm device for picking up the separated seed and for sowing the picked-up seed; a control unit for controlling the separating device, the optical recognition system and the robot arm device; a supply device for supplying the seeds in a container, characterised in that the control unit is configured to control the robot arm device to engage the container and to carry the seeds out of the container and to the separating device.