mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring and controlling tissue ablation, the system comprising: a controller configured to selectively control energy emission from an electrode array of an ablation device based on ablation feedback received during an ablation procedure with the ablation device, the controller comprising a hardware processor coupled to memory containing instructions executable by the processor to cause the controller to: receive feedback data from one or more sensors during the ablation procedure, the feedback data comprising one or more measurements associated with at least one of operation of the electrode array of the ablation device and tissue adjacent to the electrode array; characterised in that the memory contains further instructions to analyze the feedback data in real-, or near-real-, time and generate ablation status mapping based on the analysis, the ablation status mapping comprising an ablation status of the adjacent tissue undergoing ablation; and generate an ablation pattern for controlling energy emission from the electrode array of the ablation device based on the ablation status mapping, wherein the ablation pattern is configured to either maintain energy emission from the electrode array or adjust energy emission from the electrode array for targeted ablation of the adjacent tissue. receive feedback data from one or more sensors during the ablation procedure, the feedback data comprising one or more measurements associated with at least one of operation of the electrode array of the ablation device and tissue adjacent to the electrode array; characterised in that the memory contains further instructions to analyze the feedback data in real-, or near-real-, time and generate ablation status mapping based on the analysis, the ablation status mapping comprising an ablation status of the adjacent tissue undergoing ablation; and generate an ablation pattern for controlling energy emission from the electrode array of the ablation device based on the ablation status mapping, wherein the ablation pattern is configured to either maintain energy emission from the electrode array or adjust energy emission from the electrode array for targeted ablation of the adjacent tissue.
A valve for a respiratory mask, the valve comprising: a valve body shaped to define a valve opening having opposing halves (30A and 30B) and a valve member which is mounted to the valve body such that the valve member is actuable between open and closed conditions relative to the valve body in response to a pressure differential across the valve, wherein the valve member comprises first and second portions arranged for contact with the valve body in the closed condition and the valve member is pivotably mounted such that the first and second portions of the valve member are actuated into the open condition in opposing directions relative to the valve body, characterised in that the valve member is loosely mounted to the valve body such that the valve member can tilt relative to the valve body, the tilting of the valve member in this manner opens both halves (30A and 30B) of the opening. a valve body shaped to define a valve opening having opposing halves (30A and 30B) and a valve member which is mounted to the valve body such that the valve member is actuable between open and closed conditions relative to the valve body in response to a pressure differential across the valve, wherein the valve member comprises first and second portions arranged for contact with the valve body in the closed condition and the valve member is pivotably mounted such that the first and second portions of the valve member are actuated into the open condition in opposing directions relative to the valve body, characterised in that the valve member is loosely mounted to the valve body such that the valve member can tilt relative to the valve body, the tilting of the valve member in this manner opens both halves (30A and 30B) of the opening.
An observation device comprising: an epi-illumination phase contrast microscope including an illumination light beam source, an illumination optical system emitting an illumination light beam from the illumination light beam source to an observation target which is a biological cell, and an observation optical system forming an optical image of the observation target from one or more reflected light beams obtained by reflection of the illumination light beam after passing through the observation target, the observation optical system including a phase plate changing a phase of a directly reflected light beam reflected on a reflection surface among the reflected light beams, and both the illumination optical system and the observation optical system being arranged under the observation target; an image pickup device photoelectrically converting the optical image obtained by the observation optical system to create image data of the observation target; and a display device displaying the image data, characterized in that the illumination light beam emitted from the illumination optical system and passing through the observation target is a collimated light beam which is parallel to an optical axis of the illumination optical system. an epi-illumination phase contrast microscope including an illumination light beam source, an illumination optical system emitting an illumination light beam from the illumination light beam source to an observation target which is a biological cell, and an observation optical system forming an optical image of the observation target from one or more reflected light beams obtained by reflection of the illumination light beam after passing through the observation target, the observation optical system including a phase plate changing a phase of a directly reflected light beam reflected on a reflection surface among the reflected light beams, and both the illumination optical system and the observation optical system being arranged under the observation target; an image pickup device photoelectrically converting the optical image obtained by the observation optical system to create image data of the observation target; and a display device displaying the image data, characterized in that the illumination light beam emitted from the illumination optical system and passing through the observation target is a collimated light beam which is parallel to an optical axis of the illumination optical system.
Conditioning apparatus for conditioning a data channel of at least one battery cell of a multi-cell battery, wherein the conditioning apparatus is designed to condition a signal frequency suitable for transmitting data via the data channel and/or an AC resistance (Z; Z ver) of the data channel of the at least one battery cell, wherein the conditioning apparatus has at least one switchable capacitance and at least one switchable inductance and characterized in that the conditioning apparatus is connected between a first power supply line and a second power supply line of the at least one battery cell of the multi-cell battery, and is designed to couple the at least one switchable capacitance and the at least one switchable inductance to the data channel such that the data channel runs via at least one of the power supply lines (561, 562) of the at least one battery cell of the multi-cell battery in order to condition the AC resistance (Z; Z ver) of the data channel for transmitting data via at least one of the power supply lines (561, 562) of the at least one battery cell of the multi-cell battery.
A connecting assembly of modular box, comprising a top cover, a sleeve, a mandrel, a jacket, and a bottom cover or ground anchor, the bottom cover or ground anchor is connected to a lower end of the mandrel, the sleeve is configured to trap outside the mandrel; the sleeve is provided with at least one snap-fit portion, the jacket is provided with at least one snap-engagement portion, the at least one snap-engagement portion is connected with the at least one snap-fit portion, so that the jacket is fixed in a circumferential direction of the sleeve; the top cover is connected to an upper end of the mandrel to press firmly the sleeve and the jacket, so that the axial positions of the sleeve and the jacket are fixed; one end of the sleeve is a flange, the other end of the sleeve is a recess, the flange of a sleeve is connectable to a recess of another sleeve.
Method for working a workpiece made of wood, plastic, glass, fiberglass, metal, ceramic, comprising the following steps: a. providing a workpiece to be worked in a working plant (I, I'), according to a forward direction; b. carrying out the decoration of the workpiece, by means of a decoration unit, according to a predetermined decoration program, along a working direction, orthogonal to said forward direction, while said workpiece moves along said forward direction, wherein said decoration is a removal of material by means of a laser source, or a print by means of a print head or a painting; and c. after said step b., carrying out the pressing of a layer of noble material on said decorated workpiece, by means of a pressing or laminating unit. a. providing a workpiece to be worked in a working plant (I, I'), according to a forward direction; b. carrying out the decoration of the workpiece, by means of a decoration unit, according to a predetermined decoration program, along a working direction, orthogonal to said forward direction, while said workpiece moves along said forward direction, wherein said decoration is a removal of material by means of a laser source, or a print by means of a print head or a painting; and c. after said step b., carrying out the pressing of a layer of noble material on said decorated workpiece, by means of a pressing or laminating unit.
An electrochemical direct heat to electricity converter comprising: a first electrochemical cell comprising a first plurality of membrane electrode assemblies being a low temperature MEA stack coupled to a heat sink Q L and a second electrochemical cell comprising a second plurality of membrane electrode assemblies being a high temperature MEA stack coupled to a heat source Q H, each membrane electrode assembly including a first porous electrode and a second porous electrode and at least one proton conductive membrane sandwiched between the first and second porous electrodes, the first electrochemical cell constituting a low pressure side of the converter and the second electrochemical cell constituting a high pressure side of the converter; a working fluid circulating between the first electrochemical cell and the second electrochemical cell the working fluid being expanded in the high temperature MEA stack and being compressed in the low temperature MEA stack under the same current flow; and a controller configured to (i) monitor a pressure of the first electrochemical cell and a pressure of the second electrochemical cell, (ii) determine an extent of loss of pressure differential resulting from molecular diffusion of the working fluid through the proton conductive membranes, and (iii) actuate the first electrochemical cell to pump an additional amount of the working fluid to the high pressure side when the pressure differential drops below a predetermined value. a first electrochemical cell comprising a first plurality of membrane electrode assemblies being a low temperature MEA stack coupled to a heat sink Q L and a second electrochemical cell comprising a second plurality of membrane electrode assemblies being a high temperature MEA stack coupled to a heat source Q H, each membrane electrode assembly including a first porous electrode and a second porous electrode and at least one proton conductive membrane sandwiched between the first and second porous electrodes, the first electrochemical cell constituting a low pressure side of the converter and the second electrochemical cell constituting a high pressure side of the converter; a working fluid circulating between the first electrochemical cell and the second electrochemical cell the working fluid being expanded in the high temperature MEA stack and being compressed in the low temperature MEA stack under the same current flow; and a controller configured to (i) monitor a pressure of the first electrochemical cell and a pressure of the second electrochemical cell, (ii) determine an extent of loss of pressure differential resulting from molecular diffusion of the working fluid through the proton conductive membranes, and (iii) actuate the first electrochemical cell to pump an additional amount of the working fluid to the high pressure side when the pressure differential drops below a predetermined value.
A method of updating a boot block image, comprising: during runtime of a system: writing, by a system having a processor, a first physical-address-dependent code and differential data to a portion of a non-volatile memory that is unlocked to write access during runtime, the first physical-address-dependent code containing a region including a first physical address; and during a boot procedure of the system: generating, by the system, a second physical-address-dependent code from the first physical-address-dependent code using the differential data, wherein the generating comprises converting the first physical address in the region of the first physical-address-dependent code to a second, different physical address for inclusion in a corresponding region of the second physical-address-dependent code; and writing the second physical-address-dependent code to a portion of the non-volatile memory that is locked to write access during runtime. during runtime of a system: writing, by a system having a processor, a first physical-address-dependent code and differential data to a portion of a non-volatile memory that is unlocked to write access during runtime, the first physical-address-dependent code containing a region including a first physical address; and during a boot procedure of the system: generating, by the system, a second physical-address-dependent code from the first physical-address-dependent code using the differential data, wherein the generating comprises converting the first physical address in the region of the first physical-address-dependent code to a second, different physical address for inclusion in a corresponding region of the second physical-address-dependent code; and writing the second physical-address-dependent code to a portion of the non-volatile memory that is locked to write access during runtime. generating, by the system, a second physical-address-dependent code from the first physical-address-dependent code using the differential data, wherein the generating comprises converting the first physical address in the region of the first physical-address-dependent code to a second, different physical address for inclusion in a corresponding region of the second physical-address-dependent code; and writing the second physical-address-dependent code to a portion of the non-volatile memory that is locked to write access during runtime.
An application system with a cartridge, which has at least one container with a respective outlet, and a closure element, which can tightly close the outlet of the at least one container, wherein the closure element tightly closes the cartridge in a state of storage, and wherein, with the cartridge in a state of use, the closure element can be removed from the latter and a corresponding accessory can be connected with the outlet of the at least one container, characterized in that, in a state of delivery, the cartridge or the closure element has a connecting element which cannot be nondestructively removed, that, in a state of storage, the cartridge or the closure element is connected with the closure element or the cartridge by the connecting element which cannot be nondestructively removed, and that, when detaching the closure element which tightly closes the cartridge from the cartridge, a part (4, 4a) of the connecting element which has a color coding remains on the cartridge and/or the closure element.
A battery lower casing, comprising: a bottom plate; a plurality of fixing beams sequentially connected end to end and fixed to the bottom plate; a cross beam disposed between the oppositely disposed fixing beams; and a supporting bracket comprising a base plate and limiting portions, wherein the limiting portions are connected to the base plate and disposed opposite to each other, the base plate and the oppositely disposed limiting portions enclose and form a recess, the base plate is connected to the fixing beam and an end portion of the cross beam adjacent to the fixing beam is embedded in the recess such that the cross beam is connected to the fixing beam, the base plate comprises a first bearing portion and second bearing portions, wherein the first bearing portion and the oppositely disposed limiting portions enclose and form the recess, and the second bearing portions are located at two outer sides of the recess, characterized in that a reinforcing portion is disposed between the second bearing portion and the limiting portion, and the reinforcing portion, the second bearing portion and the limiting portion form a hollow triangular prism structure. a bottom plate; a plurality of fixing beams sequentially connected end to end and fixed to the bottom plate; a cross beam disposed between the oppositely disposed fixing beams; and a supporting bracket comprising a base plate and limiting portions, wherein the limiting portions are connected to the base plate and disposed opposite to each other, the base plate and the oppositely disposed limiting portions enclose and form a recess, the base plate is connected to the fixing beam and an end portion of the cross beam adjacent to the fixing beam is embedded in the recess such that the cross beam is connected to the fixing beam, the base plate comprises a first bearing portion and second bearing portions, wherein the first bearing portion and the oppositely disposed limiting portions enclose and form the recess, and the second bearing portions are located at two outer sides of the recess, characterized in that a reinforcing portion is disposed between the second bearing portion and the limiting portion, and the reinforcing portion, the second bearing portion and the limiting portion form a hollow triangular prism structure.
A hardmask composition comprising: a plurality of graphene nanoparticles, wherein the graphene nanoparticles in said composition have a size in a range of 5 nm to 100 nm; and a solvent; wherein the graphene nanoparticles have an intensity ratio of a D-mode peak to a G-mode peak of 2 or lower as obtained from Raman spectroscopy analysis; and wherein the graphene nanoparticles have a spherical, 2-dimensional plate-like shape, or an oval shape; wherein the term size denotes an average particle diameter when the graphene nanoparticle has a spherical shape, a diameter when the graphene nanoparticle has a 2-dimensional plate-like shape, or a major axis diameter when the graphene nanoparticle has an oval shape. a plurality of graphene nanoparticles, wherein the graphene nanoparticles in said composition have a size in a range of 5 nm to 100 nm; and a solvent; wherein the graphene nanoparticles have an intensity ratio of a D-mode peak to a G-mode peak of 2 or lower as obtained from Raman spectroscopy analysis; and wherein the graphene nanoparticles have a spherical, 2-dimensional plate-like shape, or an oval shape; wherein the term size denotes an average particle diameter when the graphene nanoparticle has a spherical shape, a diameter when the graphene nanoparticle has a 2-dimensional plate-like shape, or a major axis diameter when the graphene nanoparticle has an oval shape.
A post for a fence system, including: a shaft; an overmold layer extending at least a portion of a length of the shaft, wherein the overmold layer includes a plurality of external attachment locating features for selectively securing wire locating attachments at predetermined locations along the length of the shaft, characterised in that the overmold layer includes at least one stress relief feature, wherein the at least one stress relief feature includes one or more of: a plurality of transverse stress relief members surrounding the shaft, and spaced apart along the shaft, wherein neighbouring stress relief members are connected by link members on one side of the shaft, alternating between sides along the stress relief feature; a series of transverse slots in the overmold layer entering from different but not opposing directions; a helix; a necked section allowing for stretch; or one ore more breaks in the overmold. a shaft; an overmold layer extending at least a portion of a length of the shaft, wherein the overmold layer includes a plurality of external attachment locating features for selectively securing wire locating attachments at predetermined locations along the length of the shaft, characterised in that the overmold layer includes at least one stress relief feature, wherein the at least one stress relief feature includes one or more of: a plurality of transverse stress relief members surrounding the shaft, and spaced apart along the shaft, wherein neighbouring stress relief members are connected by link members on one side of the shaft, alternating between sides along the stress relief feature; a series of transverse slots in the overmold layer entering from different but not opposing directions; a helix; a necked section allowing for stretch; or one ore more breaks in the overmold. a plurality of transverse stress relief members surrounding the shaft, and spaced apart along the shaft, wherein neighbouring stress relief members are connected by link members on one side of the shaft, alternating between sides along the stress relief feature; a series of transverse slots in the overmold layer entering from different but not opposing directions; a helix; a necked section allowing for stretch; or one ore more breaks in the overmold.
Process for the preparation of dental restorations, wherein a lithium silicate glass ceramic or a lithium silicate glass is shaped to the dental restoration by (i) pressing or (ii) machining, wherein the glass ceramic and the glass comprise at least 8.5 wt.-% transition metal oxide selected from the group consisting of oxides of Y, Nb, La, Ta, W and mixtures of these oxides and wherein the glass ceramic comprises lithium metasilicate or lithium disilicate as main crystal phase and the glass comprises nuclei suitable for forming lithium metasilicate and/or lithium disilicate crystals. (i) pressing or (ii) machining,
A porous, composite bone graft implant comprising: a first component comprising a plurality of bioactive glass fibers and bioactive glass granules, wherein the first component is in the form of a cluster; and a second component comprising a bioactive glass material in the form of a shell; each of the cluster and shell having a different resorption capacity; characterised in that the bioactive glass material of the second component in the form of a shell extends over the cluster as a whole and in that the plurality of glass fibers are unfused, the composite implant having a pore size distribution including pores characterized by pore diameters ranging from 100 nanometers to 1 millimeter. a first component comprising a plurality of bioactive glass fibers and bioactive glass granules, wherein the first component is in the form of a cluster; and a second component comprising a bioactive glass material in the form of a shell; each of the cluster and shell having a different resorption capacity; characterised in that the bioactive glass material of the second component in the form of a shell extends over the cluster as a whole and in that the plurality of glass fibers are unfused, the composite implant having a pore size distribution including pores characterized by pore diameters ranging from 100 nanometers to 1 millimeter.