mhurhangee/ep-ind-claims huggingface dataset:
A method for hypothermic perfusion of a cardiac organ, characterized in that: a. the cardiac organ to be perfused is placed in a first tank, which is refrigerated and sealed and which communicates with pressurizing means, said tank containing a physiological liquid for storage, b. the cardiac organ to be perfused is attached by an artery to a nozzle communicating with a second tank, which is provided with an overflow outlet to the first tank, which overflow outlet is equipped with a non-return valve, c. the first tank is intermittently pressurized by way of the pressurizing device in order to perform retrograde pulsatile perfusion, comprising successively at least: i. a "systole" phase of the cardiac organ during the pressurization of the first tank, in the course of which the physiological liquid penetrates the cavities of the organ, the perfusate being evacuated into the second tank via the artery communicating with the nozzle, and ii. a "diastole" phase of the cardiac organ when the first tank is not pressurized, in the course of which the perfusate contained in the second tank exerts a hydrostatic pressure in the artery connected to the nozzle and irrigates the organic tissue. a. the cardiac organ to be perfused is placed in a first tank, which is refrigerated and sealed and which communicates with pressurizing means, said tank containing a physiological liquid for storage, b. the cardiac organ to be perfused is attached by an artery to a nozzle communicating with a second tank, which is provided with an overflow outlet to the first tank, which overflow outlet is equipped with a non-return valve, c. the first tank is intermittently pressurized by way of the pressurizing device in order to perform retrograde pulsatile perfusion, comprising successively at least: i. a "systole" phase of the cardiac organ during the pressurization of the first tank, in the course of which the physiological liquid penetrates the cavities of the organ, the perfusate being evacuated into the second tank via the artery communicating with the nozzle, and ii. a "diastole" phase of the cardiac organ when the first tank is not pressurized, in the course of which the perfusate contained in the second tank exerts a hydrostatic pressure in the artery connected to the nozzle and irrigates the organic tissue. i. a "systole" phase of the cardiac organ during the pressurization of the first tank, in the course of which the physiological liquid penetrates the cavities of the organ, the perfusate being evacuated into the second tank via the artery communicating with the nozzle, and ii. a "diastole" phase of the cardiac organ when the first tank is not pressurized, in the course of which the perfusate contained in the second tank exerts a hydrostatic pressure in the artery connected to the nozzle and irrigates the organic tissue.
A display device comprising a plurality of anode electrodes separated from each other; a plurality of cathode electrodes positioned on one side of the plurality of anode electrodes, respectively; and a plurality of light emitting device assemblies, wherein a light emitting device assembly among the plurality light emitting device assemblies is electrically connected to an anode electrode and a cathode electrode among the plurality of anode electrodes and the plurality of cathode electrodes to configure an individual sub-pixel, wherein the light emitting device assembly includes: a light emitting device; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers, the second adhesive layer being non-conductive. a plurality of anode electrodes separated from each other; a plurality of cathode electrodes positioned on one side of the plurality of anode electrodes, respectively; and a plurality of light emitting device assemblies, wherein a light emitting device assembly among the plurality light emitting device assemblies is electrically connected to an anode electrode and a cathode electrode among the plurality of anode electrodes and the plurality of cathode electrodes to configure an individual sub-pixel, wherein the light emitting device assembly includes: a light emitting device; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers, the second adhesive layer being non-conductive. a light emitting device; a first electrode disposed on the light emitting device and electrically connected to the anode electrode by conductive balls; a second electrode disposed on the light emitting device and electrically connected to the cathode electrode by conductive balls; first adhesive layers disposed on the first electrode and the second electrode respectively to be spaced apart from each other; and a second adhesive layer positioned on the first adhesive layers, the second adhesive layer being non-conductive.
An acoustic coupling interface for use between a flexible ultrasound transducing device and a curved object to be examined; wherein said interface is in the form of a sheet having a bending flexibility that permits the sheet to form a continuous contact with said curved object during operation of the flexible ultrasound transducing device, and wherein said sheet comprises a bulk material, characterized in that it comprises a plurality of acoustic waveguiding structures arranged in said bulk material, wherein the plurality of acoustic waveguiding structures is for providing bidirectional coupling of ultrasound signals emitted by the ultrasound transducing device, wherein the acoustic waveguiding structures are configured as an acoustic lens for an ultrasonic wave emitted by the ultrasonic transducing device and for the echo signal received from the curved object to be examined; wherein the plurality of acoustic waveguiding structures comprises waveguiding structures having an elongated form and thus form pillars extending through part or the whole bulk material.
A composition comprising in weight percent based on the weight of the composition: A. 35-80% of at least one bisphenol-A polycarbonate resin, B. 10-35% of at least one polypropylene with an MFR ≤ 12 g/10 min (230°C/2.16kg), wherein MFR (melt flow rate) is measured by ASTM D1238, C. Greater than zero (>) to 40% of at least one amine functionalized elastomeric polymer, D. >0-30% of at least one organic phosphate flame retardant, and, E. 0-10% of one or more additives; and the weight ratio of A to B is greater than (>) 1. A. 35-80% of at least one bisphenol-A polycarbonate resin, B. 10-35% of at least one polypropylene with an MFR ≤ 12 g/10 min (230°C/2.16kg), wherein MFR (melt flow rate) is measured by ASTM D1238, C. Greater than zero (>) to 40% of at least one amine functionalized elastomeric polymer, D. >0-30% of at least one organic phosphate flame retardant, and, E. 0-10% of one or more additives; and
A method performed by an electronic device for determining an inventory of auxiliary products in the interior of a vehicle, the method comprising: storing in memory a plurality of recognition models corresponding to a plurality of auxiliary products; obtaining, by the processor of the electronic device, image data of a scene of the interior of the vehicle from one or more image sensors in the vehicle; performing, by the processor of the electronic device, computer vision analysis on the image data, computer vision analysis comprising performing object recognition on the image data, wherein object recognition comprises: determining recognition data from the image data; comparing the recognition data with the recognition models to determine whether the recognition data matches one or more of the recognition models; storing, based on the comparing, in an auxiliary product inventory of the vehicle, auxiliary product data indicating the objects represented by the recognition models that are in the vehicle. storing in memory a plurality of recognition models corresponding to a plurality of auxiliary products; obtaining, by the processor of the electronic device, image data of a scene of the interior of the vehicle from one or more image sensors in the vehicle; performing, by the processor of the electronic device, computer vision analysis on the image data, computer vision analysis comprising performing object recognition on the image data, wherein object recognition comprises: determining recognition data from the image data; comparing the recognition data with the recognition models to determine whether the recognition data matches one or more of the recognition models; storing, based on the comparing, in an auxiliary product inventory of the vehicle, auxiliary product data indicating the objects represented by the recognition models that are in the vehicle. determining recognition data from the image data; comparing the recognition data with the recognition models to determine whether the recognition data matches one or more of the recognition models; storing, based on the comparing, in an auxiliary product inventory of the vehicle, auxiliary product data indicating the objects represented by the recognition models that are in the vehicle.
A header of an agricultural harvesting machine including a reel and first and second reel positioning devices (52, 54) controllably operable for moving the reel in first and second directions, respectively, a cutter bar and a cutter bar positioning device controllably operable for moving the cutter bar in the first direction, at least one controller connected in operative control of the positioning devices (52, 54, 56) and automatically operable, responsive to input commands, for controlling the positioning devices (52, 54, 56), and an input connected to the controller operable for inputting commands thereto, the input and the controller being configured and co-operable for recognizing multiple predetermined discrete patterns of operator input, and responsive thereto, automatically positioning the reel and the cutter bar to multiple predetermined relative positions (RF, RA, RU, RD, C, D, E, CF, CA), respectively, characterized in that responsive to a predetermined discrete pattern of operator inputs comprising at least two successive actuations of one input, the reel and the cutter bar are automatically positioned in predetermined positions (RF, RA, RU, RD, C, D, E, CF, CA), respectively.
A tape cartridge that accommodates a printing tape wound around a tape core in a cartridge case, and is attached or detached in an attaching direction and a detaching direction to or from a cartridge mounting portion of a tape printing device including a pattern reading portion disposed in a side plate portion of the cartridge mounting portion, the pattern reading portion including a sensor holder on which a detecting portion is mounted for reading type information of the tape cartridge, characterised in that the type information is read with detection light for each of a number of bit configuration portions of a type reading pattern, the bit configuration portions being disposed in a matrix with rows and columns, the type reading pattern indicating the type information of the tape cartridge and formed in a type reading seal adhered on a base end surface of the cartridge case of the tape cartridge, wherein the tape cartridge case comprises: the base end surface along the attaching direction of the cartridge case; and a positioning hole portion provided at a position corresponding to a positioning pin provided in the sensor holder of the tape printing device for positioning between the detecting portion and the type reading pattern, wherein the base end surface has a cutout connecting to the positioning hole portion; and the cutout corresponds to a connection portion when the tape cartridge is attached to the tape printing device, the connection portion being provided in the tape printing device and connected to the positioning pin. the base end surface along the attaching direction of the cartridge case; and a positioning hole portion provided at a position corresponding to a positioning pin provided in the sensor holder of the tape printing device for positioning between the detecting portion and the type reading pattern, wherein the base end surface has a cutout connecting to the positioning hole portion; and the cutout corresponds to a connection portion when the tape cartridge is attached to the tape printing device, the connection portion being provided in the tape printing device and connected to the positioning pin.
An automatically multi-bootable computer system comprising: a computer having at least two operating systems installed, the computer being in one out of multiple functional modes, each of the multiple functional modes associated with one of the at least two operating systems, and each of at least two of the multiple functional modes associated with different ones of the at least two operating systems; a computer state manager configured to store functional mode information, wherein the functional mode information identifies a particular functional mode the computer system will assume when the computer system is re-started for a pre-determined reason; and a boot loader configured to receive the stored functional mode information and to activate the operating system associated with the particular functional mode identified by the functional mode information when re-starting the computer for the pre-determined reason; characterized in that the computer state manager comprises a recovery system for recovering the computer system from a fault condition; the pre-determined reason for re-starting the computer system comprises an occurrence of a fault condition; and the particular functional mode comprises a fault recovery functional mode; wherein the boot loader is further configured to load each of the at least two operating systems into memory, while powering up the computer. a computer having at least two operating systems installed, the computer being in one out of multiple functional modes, each of the multiple functional modes associated with one of the at least two operating systems, and each of at least two of the multiple functional modes associated with different ones of the at least two operating systems; a computer state manager configured to store functional mode information, wherein the functional mode information identifies a particular functional mode the computer system will assume when the computer system is re-started for a pre-determined reason; and a boot loader configured to receive the stored functional mode information and to activate the operating system associated with the particular functional mode identified by the functional mode information when re-starting the computer for the pre-determined reason; characterized in that the computer state manager comprises a recovery system for recovering the computer system from a fault condition; the pre-determined reason for re-starting the computer system comprises an occurrence of a fault condition; and the particular functional mode comprises a fault recovery functional mode; wherein the boot loader is further configured to load each of the at least two operating systems into memory, while powering up the computer.
A deodorant obtainable by a method wherein a copper salt aqueous solution and a silicate salt aqueous solution are simultaneously instilled from the time of instillation start, the copper salt aqueous solution and the silicate salt aqueous solution are mixed in a solution state and reacted under a condition where a pH does not depart from a range of from 6.0 to 9.0, the copper salt aqueous solution and the silicate salt aqueous solution are reacted with each other at a reaction temperature of from 5 to 50°C; and the resultant product is washed with water so that an electrical conductivity of a filtrate after water washing is from 5 to 200 μS/cm, wherein the deodorant comprises amorphous copper silicate represented by the following formula, wherein the amorphous copper silicate has a bulk specific gravity of from 0.10 to 0.40 g/ml as measured by the method described in the description xNa 2 O·yCuO·SiO 2 ·zH 2 O and wherein, in formula, x is a positive number from 0.002 to 0.040, y is a positive number from 0.07 to 0.48, and z is a positive number from 0.02 to 0.30.
A phosphorescent meso-unsubstituted porphyrin having the Formula: wherein M is a metal, wherein each R is independently an atom or a group of atoms, and wherein at least one R is -OR 1, wherein R 1 is an alkynyl group, or includes a triazolyl group, or includes an alkylglutamate group, or terminates in a pair of alkylglutamate groups. wherein M is a metal, wherein each R is independently an atom or a group of atoms, and wherein at least one R is -OR 1, wherein R 1 is an alkynyl group, or includes a triazolyl group, or includes an alkylglutamate group, or terminates in a pair of alkylglutamate groups.
A communication device, comprising: a receiver configured to receive a radio frequency signal; a determination circuit configured to determine an energy level of the signal; at least one processor configured to generate a mute instruction to mute an audio output, if the energy level of the signal in a predefined audio frequency range is equal to or exceeds a first threshold in a first time period, and if an energy level sequence of a plurality of determined energy levels in the predefined audio frequency range in a second time period following the first time period is determined, in which each determined energy level of the signal of the energy level sequence is equal to or exceeds a second threshold. a receiver configured to receive a radio frequency signal; a determination circuit configured to determine an energy level of the signal; at least one processor configured to generate a mute instruction to mute an audio output, if the energy level of the signal in a predefined audio frequency range is equal to or exceeds a first threshold in a first time period, and if an energy level sequence of a plurality of determined energy levels in the predefined audio frequency range in a second time period following the first time period is determined, in which each determined energy level of the signal of the energy level sequence is equal to or exceeds a second threshold. if the energy level of the signal in a predefined audio frequency range is equal to or exceeds a first threshold in a first time period, and if an energy level sequence of a plurality of determined energy levels in the predefined audio frequency range in a second time period following the first time period is determined, in which each determined energy level of the signal of the energy level sequence is equal to or exceeds a second threshold.
An anti-bacterial agent comprising a honey for use in medicine, wherein the nectar source of the honey is a nectar or sap of Quercus hartwissiana, a secretion of the insect which is parasitic on Quercus hartwissiana, or a combination thereof, wherein the anti-bacterial agent has anti-bacterial activity against Pseudomonas aeruginosa, and wherein the content of the honey of which Quercus hartwissiana is the nectar source is 100% by mass, based on the solid content of the anti-bacterial agent.
Method for activating a destination network node to be woken up in a wireless network, the destination network node being woken up from a sleep operating mode if an integrated wake-up circuit of the destination network node receives a secret wake-up token and, by means of a predetermined test function, it verifies at least one stored wake-up token reference value (WUTRV), the waking of the destination network node comprising an activation of a main radio module for transmitting and receiving messages and the wake-up circuit having a lower energy consumption than the main radio module.
A method of stopping a vehicle without a driver, the method comprising: after a passenger has entered the vehicle, maneuvering, by one or more processors, the vehicle in an autonomous driving mode towards a destination location along a route, the route being divided into two or more stages; receiving, by the one or more processors, a signal indicating that the passenger is requesting that the vehicle stop or pull over; in response to receiving the signal, determining, by the one or more processors, a current stage of the two or more stages of the route based on a current distance, in time or space, of the vehicle from a pickup location where the passenger entered the vehicle and/or a current distance, in time or space, of the vehicle from the destination location, wherein the current stage is determined based on whether or not the vehicle is within a first threshold distance, in time or space, from the pickup location and/or whether or not the vehicle is within a second threshold distance, in time or space, from the destination location; and stopping, by the one or more processors, the vehicle, wherein where and how the vehicle is stopped is determined based on the determined current stage. after a passenger has entered the vehicle, maneuvering, by one or more processors, the vehicle in an autonomous driving mode towards a destination location along a route, the route being divided into two or more stages; receiving, by the one or more processors, a signal indicating that the passenger is requesting that the vehicle stop or pull over; in response to receiving the signal, determining, by the one or more processors, a current stage of the two or more stages of the route based on a current distance, in time or space, of the vehicle from a pickup location where the passenger entered the vehicle and/or a current distance, in time or space, of the vehicle from the destination location, wherein the current stage is determined based on whether or not the vehicle is within a first threshold distance, in time or space, from the pickup location and/or whether or not the vehicle is within a second threshold distance, in time or space, from the destination location; and stopping, by the one or more processors, the vehicle, wherein where and how the vehicle is stopped is determined based on the determined current stage.