mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode solution for a liquid flow battery comprising: an electrolyte comprising a liquid medium and at least one redox active specie, wherein the electrolyte has a density, De; and a core-shell particulate having a core, a shell and a density Dp, wherein at least a portion of the shell of the core-shell particulate includes an electrically conductive first metal and wherein 0.8De ≤ Dp ≤ 1.2De; and wherein a first redox active specie of the at least one redox active specie and the electrically conductive first metal are different elements. an electrolyte comprising a liquid medium and at least one redox active specie, wherein the electrolyte has a density, De; and a core-shell particulate having a core, a shell and a density Dp, wherein at least a portion of the shell of the core-shell particulate includes an electrically conductive first metal and wherein 0.8De ≤ Dp ≤ 1.2De; and
Method for assisting in the driving of a motor vehicle on a fast road with carriageways separated by a safety rail comprising: - a step of detecting the presence of and modelling the safety rail from measurements performed continuously by at least one laser scanner sensor mounted on the motor vehicle , comprising determining a confidence index I CONF associated with the detection by the laser scanner sensor ; - a step of activating an automatic driving mode when said confidence index I CONF is above a confidence threshold I th for at least a predefined time corresponding to a minimum rolling distance D th travelled by the motor vehicle ; - a step of maintaining said automatic driving mode as long as a current confidence index associated with the detection is above said confidence threshold I th ; and - a step of deactivating said automatic driving mode when the current confidence index passes below said confidence threshold; said method also comprising a step of estimating the density of traffic in front of the motor vehicle from images captured by a camera embedded on said motor vehicle , a method in which, after the activation of said automatic driving mode, said current confidence index taken into account in the deactivation and maintaining steps is a function of a combination of the confidence index I CONF associated with the detection of the presence of the safety rail and of the estimated traffic density. - a step of detecting the presence of and modelling the safety rail from measurements performed continuously by at least one laser scanner sensor mounted on the motor vehicle , comprising determining a confidence index I CONF associated with the detection by the laser scanner sensor ; - a step of activating an automatic driving mode when said confidence index I CONF is above a confidence threshold I th for at least a predefined time corresponding to a minimum rolling distance D th travelled by the motor vehicle ; - a step of maintaining said automatic driving mode as long as a current confidence index associated with the detection is above said confidence threshold I th ; and - a step of deactivating said automatic driving mode when the current confidence index passes below said confidence threshold; said method also comprising a step of estimating the density of traffic in front of the motor vehicle from images captured by a camera embedded on said motor vehicle , a method in which, after the activation of said automatic driving mode, said current confidence index taken into account in the deactivation and maintaining steps is a function of a combination of the confidence index I CONF associated with the detection of the presence of the safety rail and of the estimated traffic density.
An assistance device for imaging support for a surgeon during a surgical procedure using at least one medical instrument, comprising a camera for generating a video signal that includes an image sequence of individual images; a display device for displaying the image sequence based on the video signal; an image processing unit having an instrument detection module for detecting at least one target structure representing the instrument used in the respective individual image, and doing so by identifying a predefined distinguishing feature, and for extracting position information indicating the position of the target structure in the individual image; a manipulator , which is coupled to the camera and can be triggered for moving said camera by means of a control signal; and a manipulation controller for generating the control signal from the position information and for triggering the manipulator by means of the control signal; characterized in that the instrument detection module identifies as a predefined distinguishing feature an image segment that is characterized by a color saturation, which is the same as or less than a predefined color saturation, and by an outline delimiting the image segment, said outline having at least one rectilinear segment; in that the image processing unit includes a preprocessing module , which generates a gray-value image on the basis of the respective individual image, each pixel of the gray-value image being assigned a gray value representing the color saturation of the corresponding pixel of the individual image; in that the image processing unit includes a segmentation module , which generates a plurality of binary images on the basis of the respective gray-value image and uses for generating these images different threshold values in which the instrument detection module identifies the image segment; and in that the instrument detection module identifies mutually corresponding rectilinear segments in the binary images thereby generated and combines them into a single edge line representing one edge of the instrument.
Flexible, energy self-sufficient UV dosimeter which optically displays the absorbed dose by a colour change as a function of the intensity and duration of the exposure and which can function without an additional energy source, and consists of one or more UV dosimeter modules, each UV dosimeter module comprising one or more UV-sensitive photodiode(s) and an electrochromic element , which are arranged on a common electrode , and the electrochromic element accumulating the charge generated by the UV-sensitive photodiode and displaying this by a colour change, the common transparent electrode having a layer of a transparent metal oxide on a transparent flexible substrate, on which further layers are arranged, the further layers of the UV-sensitive photodiode being a layer of a polymeric hole conductor material, a semiconducting UV absorber layer and a cathode , and the further layers of the electrochromic element being an ion storage layer , an electrolyte layer , an electrochromic layer of a redox-active material and an electrode , an insulator being located between the photodiode and the electrochromic display element and the two electrodes being connected by an electrical conductor track .
A trimmer head having an outer diameter and a trimmer line, the trimmer line comprising: an elongated body having a first end, an opposite second end, and a center between the first end and the second end; indicia formed on the elongated body and spaced from the center a distance greater than or equal to about half the outer diameter, the trimmer head being characterised in that the indicia includes a marking applied to the elongated body, and wherein the indicia includes a line printed on and extending circumferentially around an outer surface of the elongated body. an elongated body having a first end, an opposite second end, and a center between the first end and the second end; indicia formed on the elongated body and spaced from the center a distance greater than or equal to about half the outer diameter, the trimmer head being characterised in that the indicia includes a marking applied to the elongated body, and wherein the indicia includes a line printed on and extending circumferentially around an outer surface of the elongated body.
An assembly of a drug delivery system , comprising: a pushing element , operatively attached to a plunger or stopper in a cartridge of the drug delivery system ; and a driving element threadedly connected with the pushing element and forming a telescoping assembly , a linear motion being achieved by a screwing motion between the threaded components; characterized in that: the pushing element being provided with an annular ring and the driving element being provided with a counterpart lip , the annular ring and the lip being resistance elements to prevent unintended linear extension of the telescoping assembly from a closed transport configuration during transport, the resistance elements being adapted to be overcome during nominal operation of the drug delivery system by a required amount of torque. a pushing element , operatively attached to a plunger or stopper in a cartridge of the drug delivery system ; and a driving element threadedly connected with the pushing element and forming a telescoping assembly , a linear motion being achieved by a screwing motion between the threaded components; characterized in that: the pushing element being provided with an annular ring and the driving element being provided with a counterpart lip , the annular ring and the lip being resistance elements to prevent unintended linear extension of the telescoping assembly from a closed transport configuration during transport, the resistance elements being adapted to be overcome during nominal operation of the drug delivery system by a required amount of torque.
A pharmaceutical composition comprising stem cells and/or progenitor cells embedded in a biodegradable thermoreversible hydrogel for use in treating a cardiac disease or disorder where a scar is present in heart tissue as a result of the disease or disorder, wherein the hydrogel is characterized by a viscosity of less than 200 Pa·s between 4°C. and 12°C., and a viscosity of more than 1,000 Pa·s at 37°C, and/or wherein said hydrogel comprises ethylene oxide/propylene oxide block copolymer and hydroxypropylmethylcellulose (HPMC), wherein the treating comprises administering the pharmaceutical composition beneath the parietal layer and above the epicardium and adjacent to the scar tissue.
Evaluation arrangement for a thermal gas sensor with at least one heater and at least one detector , wherein the evaluation arrangement is configured to control a heating power applied to the heater dependent on at least one sensor signal from at least one detector in order to bring the at least one sensor signal into a predetermined value range; and wherein the evaluation arrangement is configured to consider information about the heating power when deriving information about a gas concentration from the sensor signals. wherein the evaluation arrangement is configured to control a heating power applied to the heater dependent on at least one sensor signal from at least one detector in order to bring the at least one sensor signal into a predetermined value range; and wherein the evaluation arrangement is configured to consider information about the heating power when deriving information about a gas concentration from the sensor signals.
A catalytic hydrocracking process providing for a reduction of the buildup of heavy poly-aromatic hydrocarbons in a heavy oil recycle stream of said hydrocracking process, wherein the process comprises: (a) hydrocracking in a hydrocracker reactor a heavy feedstock to yield a hydrocracked product that is separated into at least two product streams including said heavy oil recycle stream, comprising a concentration of said heavy poly-aromatic hydrocarbons; (b) passing a first portion of said heavy oil recycle stream as a recycle feed to said hydrocracker reactor; (c) passing a second portion of said heavy oil recycle stream to a solvent deasphalting unit for separating said heavy poly-aromatic hydrocarbons from said second portion of said heavy oil recycle stream to yield a deasphalted paraffinic oil and a heavy polycyclic aromatics fraction, comprising said heavy poly-aromatic hydrocarbons; and (d) passing said deasphalted paraffinic oil as a feed to said hydrocracker reactor, wherein the weight ratio of said second portion of said heavy oil recycle stream to said first portion of said heavy oil recycle stream is less than 0.5 and greater than 0.05. (a) hydrocracking in a hydrocracker reactor a heavy feedstock to yield a hydrocracked product that is separated into at least two product streams including said heavy oil recycle stream, comprising a concentration of said heavy poly-aromatic hydrocarbons; (b) passing a first portion of said heavy oil recycle stream as a recycle feed to said hydrocracker reactor; (c) passing a second portion of said heavy oil recycle stream to a solvent deasphalting unit for separating said heavy poly-aromatic hydrocarbons from said second portion of said heavy oil recycle stream to yield a deasphalted paraffinic oil and a heavy polycyclic aromatics fraction, comprising said heavy poly-aromatic hydrocarbons; and (d) passing said deasphalted paraffinic oil as a feed to said hydrocracker reactor, wherein the weight ratio of said second portion of said heavy oil recycle stream to said first portion of said heavy oil recycle stream is less than 0.5 and greater than 0.05.
A method of manufacturing a component carrier , wherein the method comprises: connecting a stack of a plurality of electrically conductive layer structures and/or electrically insulating layer structures for forming a carrier body ; forming a metal surface structure coupled to the layer structures; forming a metal body directly on the metal surface structure by 3D-printing as layer by layer additive manufacturing, mounting and/or embedding an electronic component on and/or in the carrier body , wherein the metal surface structure comprises a metal foil, wherein the metal body is a heat sink and is arranged directly on the metal surface structure without material and layers in between forming an interface between the heat sink and the metal surface structure continuously and homogeneously, so that no gaps or cavities are formed along the interface, wherein the component is thermally coupled via the metal surface structure to the metal body . connecting a stack of a plurality of electrically conductive layer structures and/or electrically insulating layer structures for forming a carrier body ; forming a metal surface structure coupled to the layer structures; forming a metal body directly on the metal surface structure by 3D-printing as layer by layer additive manufacturing, mounting and/or embedding an electronic component on and/or in the carrier body , wherein the metal surface structure comprises a metal foil, wherein the metal body is a heat sink and is arranged directly on the metal surface structure without material and layers in between forming an interface between the heat sink and the metal surface structure continuously and homogeneously, so that no gaps or cavities are formed along the interface, wherein the component is thermally coupled via the metal surface structure to the metal body .
A light scanning unit comprising: a housing having a first side wall and a second side wall opposite the first side wall; a light source disposed at the first side wall to emit a light beam according to an image signal; a light deflector to scan the light beam that is emitted by the light source by deflection of the light beam; and a deformation prevention member , wherein the light deflector is arranged between the first and the second side wall and is arranged on a base surface of the housing, wherein the deformation prevention member is formed of a material having a thermal expansion coefficient that is lower than that of a material of the housing , characterized in that the deformation prevention member is connected to the first and the second side wall . a housing having a first side wall and a second side wall opposite the first side wall; a light source disposed at the first side wall to emit a light beam according to an image signal; a light deflector to scan the light beam that is emitted by the light source by deflection of the light beam; and a deformation prevention member , wherein the light deflector is arranged between the first and the second side wall and is arranged on a base surface of the housing, wherein the deformation prevention member is formed of a material having a thermal expansion coefficient that is lower than that of a material of the housing , characterized in that the deformation prevention member is connected to the first and the second side wall .
A method of operation of a wireless device in a wireless network , the method comprising: transmitting a first message to a network node , the first message comprising at least a first portion of an identifier associated with the wireless device and at least a first portion of an access and mobility management (AMF) identifier (ID), wherein the first message does not comprise a complete identifier associated with the wireless device; and transmitting a second message to the network node, the second message comprising a second portion of the identifier associated with the wireless device, and wherein the second message comprises the first portion and a second portion of the AMF ID. transmitting a first message to a network node , the first message comprising at least a first portion of an identifier associated with the wireless device and at least a first portion of an access and mobility management (AMF) identifier (ID), wherein the first message does not comprise a complete identifier associated with the wireless device; and transmitting a second message to the network node, the second message comprising a second portion of the identifier associated with the wireless device, and wherein the second message comprises the first portion and a second portion of the AMF ID.
A heat insulation door (D) for a refrigeration appliance (R), comprising a door body having a multilayer structure, wherein the door body comprises: a heat insulation vacuum glass module , wherein the vacuum glass module comprises a superposed first glass and a second glass , there is a first interval between the first glass and the second glass , and the first glass is located in front of the second glass along a front-to-rear direction (X) of the door (D), and a front decoration plate , located in front of the vacuum glass module to cover the first glass , wherein in a width and/or a length direction of the first glass , the front decoration plate has a protruding portion that extends out of an edge of the vacuum glass module , characterized in that the door body further comprises a rear protective layer located behind the second glass along the front-to-rear direction (X), to cover the second glass . a heat insulation vacuum glass module , wherein the vacuum glass module comprises a superposed first glass and a second glass , there is a first interval between the first glass and the second glass , and the first glass is located in front of the second glass along a front-to-rear direction (X) of the door (D), and a front decoration plate , located in front of the vacuum glass module to cover the first glass , wherein in a width and/or a length direction of the first glass , the front decoration plate has a protruding portion that extends out of an edge of the vacuum glass module , characterized in that the door body further comprises a rear protective layer located behind the second glass along the front-to-rear direction (X), to cover the second glass .
A building ventilation apparatus for mounting in a wall opening, comprising at least a wall mount casing having a support frame with a rear side forming a contact surface for contacting a wall, and having a ventilation duct which can be inserted into the wall opening, wherein - the support frame includes a connecting collar formed perpendicular to the contact surface and surrounding a ventilation aperture , wherein at least one hinge point is formed at each of at least two opposing points of the connecting collar ; - the ventilation duct , in an outlet region, includes at least two opposing hinge points , each of which can be coupled to a hinge point of the support frame , and - the outside cross-section of the ventilation duct is reduced relative to the clear cross-section in the connecting collar to an extent that the ventilation duct , which is coupled to the support frame via the hinge points , can be oriented such that its longitudinal axis is inclined with respect to a surface normal of the contact surface , characterised in that - the connecting collar has a rectangular configuration, wherein at least one hinge point is formed at each of the opposing vertical portions of the connecting collar ; and - the ventilation duct , at least in an outlet region intended for connection to the support frame , has a rectangular cross-section, wherein the extent measured across the outside circumference at the outlet region of the ventilation duct is equal to the clear inside dimension between the vertical portions of the connecting collar , and its vertical extent measured across the outside circumference is less than the clear inside dimension between the horizontal portions of the connecting collar . - the support frame includes a connecting collar formed perpendicular to the contact surface and surrounding a ventilation aperture , wherein at least one hinge point is formed at each of at least two opposing points of the connecting collar ; - the ventilation duct , in an outlet region, includes at least two opposing hinge points , each of which can be coupled to a hinge point of the support frame , and - the outside cross-section of the ventilation duct is reduced relative to the clear cross-section in the connecting collar to an extent that the ventilation duct , which is coupled to the support frame via the hinge points , can be oriented such that its longitudinal axis is inclined with respect to a surface normal of the contact surface , characterised in that - the connecting collar has a rectangular configuration, wherein at least one hinge point is formed at each of the opposing vertical portions of the connecting collar ; and - the ventilation duct , at least in an outlet region intended for connection to the support frame , has a rectangular cross-section, wherein the extent measured across the outside circumference at the outlet region of the ventilation duct is equal to the clear inside dimension between the vertical portions of the connecting collar , and its vertical extent measured across the outside circumference is less than the clear inside dimension between the horizontal portions of the connecting collar .