mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode for a lithium ion secondary battery, the negative electrode comprising a negative electrode active material, a fine graphite material, a conductive aid, and a binder, wherein a mass ratio of the fine graphite material to the conductive aid is in a range from 1 to 10, and an average particle diameter (median diameter D 50 ) of the fine graphite material is smaller than an average particle diameter (median diameter D 50 ) of the negative electrode active material, and in a range of 1 to 15 μm, and characterized in that a ratio of a particle diameter at 90 cumulative% in a cumulative distribution (D 90 ) to the average particle diameter (D 50 ), D 90 /D 50 , of the negative electrode active material is 1.5 or smaller, wherein a particle diameter D 90 refers to a particle diameter at an integrated value up to 90% in a particle size distribution (volume-based) obtained by using a laser diffraction/scattering method, and a median diameter D 50 refers to a particle diameter at an integrated value up to 50% in a particle size distribution (volume-based) obtained by using a laser diffraction/scattering method. wherein a mass ratio of the fine graphite material to the conductive aid is in a range from 1 to 10, and an average particle diameter (median diameter D 50 ) of the fine graphite material is smaller than an average particle diameter (median diameter D 50 ) of the negative electrode active material, and in a range of 1 to 15 μm, and characterized in that
Method for transmitting three data signals from a USB signal in which the first data signal is transmitted differentially via a first conductor pair and the second data signal is transmitted differentially via a second conductor pair , characterised in that a signal portion (D+) of the third data signal is transmitted as a common mode component via the first conductor pair and a reference portion (D-) of the third data signal is transmitted as a common mode component via the second conductor pair .
A lamp for a vehicle, comprising: a cover lens ; a housing coupled to the cover lens to form a space; a light output unit disposed in the space and comprising a plurality of light generation groups arranged in a first direction in the space; and a light guide comprising a plurality of optical branches extending in a second direction inside the space, wherein the second direction forms a specific angle relative to the first direction, wherein a number of the plurality of optical branches corresponds to a number of the plurality of light generation groups, and wherein the plurality of optical branches is stacked in the first direction, characterized in that each of the plurality of optical branches comprises one or more optical patterns placed at different locations with respect to the second direction, and wherein the optical patterns are arranged in a way that a first optical pattern of a first optical branch is extending in the second direction, and a second optical pattern of a second optical branch is extending from one end of the first optical pattern in the second direction, and wherein in proportion to a distance of the respective light generation group from the cover lens each of the plurality of light generating groups generates a different amount of light, whereby the farther the respective light generation group is disposed from the cover lens , the greater amount of light is stably output to the outside by the corresponding light generation group . a cover lens ; a housing coupled to the cover lens to form a space; a light output unit disposed in the space and comprising a plurality of light generation groups arranged in a first direction in the space; and a light guide comprising a plurality of optical branches extending in a second direction inside the space, wherein the second direction forms a specific angle relative to the first direction, wherein a number of the plurality of optical branches corresponds to a number of the plurality of light generation groups, and wherein the plurality of optical branches is stacked in the first direction, characterized in that each of the plurality of optical branches comprises one or more optical patterns placed at different locations with respect to the second direction, and wherein the optical patterns are arranged in a way that a first optical pattern of a first optical branch is extending in the second direction, and a second optical pattern of a second optical branch is extending from one end of the first optical pattern in the second direction, and wherein in proportion to a distance of the respective light generation group from the cover lens each of the plurality of light generating groups generates a different amount of light, whereby the farther the respective light generation group is disposed from the cover lens , the greater amount of light is stably output to the outside by the corresponding light generation group .
A first proteinaceous molecule comprising a first binding site for binding to a first epitope of a first cell-surface molecule, covalently bound to at least one saponin via at least one linker and/or via an oligomeric or polymeric scaffold to an amino-acid residue of said first proteinaceous molecule, or covalently bound directly to an amino-acid residue of said first proteinaceous molecule, wherein - the first binding site comprises or consists of an immunoglobulin, such as an antibody or an IgG, or comprises or consists of at least one ligand for binding to a cell-surface molecule such as EGF or a cytokine, and - wherein the at least one saponin is selected from the group consisting of: SO1861, SA1641, GE1741, QS-21, QS-21A, QS21-B, Quil-A, SO1832, SO1904, and SO1862. - the first binding site comprises or consists of an immunoglobulin, such as an antibody or an IgG, or comprises or consists of at least one ligand for binding to a cell-surface molecule such as EGF or a cytokine, and - wherein the at least one saponin is selected from the group consisting of: SO1861, SA1641, GE1741, QS-21, QS-21A, QS21-B, Quil-A, SO1832, SO1904, and SO1862.
A liquid cooled thermal heat sink device comprising a housing having a fluid inlet and a fluid outlet , the fluid inlet being in fluid communication with a plenum chamber, the plenum chamber comprising a jet orifice plate which defines a plurality of jet orifices through which a pressurised liquid can operably exit the plenum chamber and contact a thermal surface , the jet orifice plate defining a base of the plenum chamber, the plenum chamber further comprising side walls extending upwardly from the base, the device further defining surfaces of an exit channel , the exit channel sharing the side walls with the plenum chamber, the plenum chamber being provided on a first side of the side walls and surfaces of the exit channel being provided on a second side of the side walls such that the exit channel extends continuously, and circumferentially, about a perimeter of the plenum chamber, the exit channel being configured to deliver fluid exiting the jet orifices to the fluid outlet , the fluid inlet being perpendicularly offset from the jet orifices, and wherein the plenum chamber is dimensioned to operably form a pressurised chamber, such that fluid flow entering into the chamber is stagnated and then exits the chamber via each of the plurality of jet orifices at a constant flow rate, the flow rate exiting the chamber being greater than the flow rate entering the chamber, and wherein the plenum chamber defines a first stagnant chamber and the exit channel defines a second stagnant chamber.
A method for controlling a rotational velocity of a cutting device , comprising: determining a present diameter of a cutting wheel of the cutting device ; and adjusting a rotational velocity of the cutting wheel based on the present diameter to have a surface speed of the cutting wheel at substantially a pre-determined constant surface speed, characterised in that determining the present diameter comprises determining an amount of power used to maintain a present rotational velocity, wherein the power is electric power and wherein the determining the present diameter comprises determining a distance from a sensor to at least one of a surface of an item being cut by the cutting wheel and a member supporting the item, and the distance is used to determine the present diameter of the cutting wheel. determining a present diameter of a cutting wheel of the cutting device ; and adjusting a rotational velocity of the cutting wheel based on the present diameter to have a surface speed of the cutting wheel at substantially a pre-determined constant surface speed, characterised in that determining the present diameter comprises determining an amount of power used to maintain a present rotational velocity, wherein the power is electric power and wherein the determining the present diameter comprises determining a distance from a sensor to at least one of a surface of an item being cut by the cutting wheel and a member supporting the item, and the distance is used to determine the present diameter of the cutting wheel.
A method of operating a mobile device to provide a display of supplementary information aligned with a view of a scene, the mobile device including a camera , a display , a processing system including at least one processor and at least one position sensor , the mobile device being in networked communication via a wide-area network (WAN) with a remote server , the method comprising the steps of: (a) obtaining a first image from the camera ; (b) uploading at least said first image via the WAN to the remote server together with corresponding data from the at least one position sensor ; (c) performing image processing to track image motion between said first image and subsequent images obtained from the camera, and hence determining a mapping between features of a reference image and features of a current image obtained from the camera, said reference image being selected from the group consisting of: said first image; and a second image for which transformation parameters were uploaded to the server corresponding to a mapping between said first image and said second image, said processing being performed by the at least one processor of the mobile device , characterized by (d) receiving via the WAN data indicative of a pixel location for display of supplementary information within said reference image, said receiving including receiving data indicative of a pixel location for display of supplementary information relating to an object obscured from view; (e) employing said mapping to determine a corresponding pixel location for display of the supplementary information within the current image; and (f) displaying the supplementary information on the display_ correctly aligned with the view of the scene. (a) obtaining a first image from the camera ; (b) uploading at least said first image via the WAN to the remote server together with corresponding data from the at least one position sensor ; (c) performing image processing to track image motion between said first image and subsequent images obtained from the camera, and hence determining a mapping between features of a reference image and features of a current image obtained from the camera, said reference image being selected from the group consisting of: said first image; and a second image for which transformation parameters were uploaded to the server corresponding to a mapping between said first image and said second image, said processing being performed by the at least one processor of the mobile device , characterized by (d) receiving via the WAN data indicative of a pixel location for display of supplementary information within said reference image, said receiving including receiving data indicative of a pixel location for display of supplementary information relating to an object obscured from view; (e) employing said mapping to determine a corresponding pixel location for display of the supplementary information within the current image; and (f) displaying the supplementary information on the display_ correctly aligned with the view of the scene.
A removable bridge system for attachment to a plurality of dental implants , each implant having an implant body fixedly received inside a jawbone of an individual and an implant head projected from said jawbone, the system comprising a plurality of abutments , each comprising a seat portion formed with a shape conforming with a shape of a corresponding implant head and allowing fixedly positioning of the abutment to the implant, and an abutment head ; at least one of said abutments is configured as a locking abutment and comprises a locking portion ; a bridge generally conforming with dental parameters of the individual, having a bottom surface formed with a receiving apertures , each aperture shaped so as to snugly fit over a corresponding abutment head; and the bridge further comprises a locking arrangement for removably locking the bridge to said abutments, and comprising one or more locks , having a locking pin , for releasable locking engagement over at least one locking abutment, characterized in that , in a locked position of the locking arrangement, the bridge is spaced from the locking pin, thereby directing loads borne by the bridge to the abutments without subjecting said locking arrangement to said loads.
An X-ray tube mount for mounting an X-ray tube assembly to a rotating disk assembly of a CT imaging system , wherein the X-ray tube assembly comprises an anode rotating on a shaft , the shaft having a longitudinal axis extending therethrough, said X-ray tube mount comprising: a housing for receiving the x-ray tube assembly , the housing having an inner end and an outer end, wherein said inner end of said housing is located closer to the center of rotation of the rotating disk assembly than said outer end of said housing; and at least two mounting constructs for mounting said housing to the rotating disk assembly , the at least two mounting constructs being connected to said housing at two points, wherein the two points are co-planar with the longitudinal axis of the shaft when said X-ray tube assembly is disposed in said housing. a housing for receiving the x-ray tube assembly , the housing having an inner end and an outer end, wherein said inner end of said housing is located closer to the center of rotation of the rotating disk assembly than said outer end of said housing; and at least two mounting constructs for mounting said housing to the rotating disk assembly , the at least two mounting constructs being connected to said housing at two points, wherein the two points are co-planar with the longitudinal axis of the shaft when said X-ray tube assembly is disposed in said housing.
A safety system for maintenance of a lift or elevator, the latter moving within a shaft or containment structure , said system comprising, in correspondence with a lower section thereof or, if hollow, pit of such shaft , a control member of the lift within said shaft, said member comprising control means for controlling the movements of the lift along such shaft or structure from its lower section during lift maintenance, said control means comprising push-buttons, said control member being able to be positioned in a rest station whenever it is not used and during the normal use of the lift, said system being characterized in that it comprises position detector means associated at least with said control member and activated whenever it is located in such station, said position detector means disabling the use of the lift by users whenever such control member is separated from such station, this ensuring that a movement of the lift can only be made by acting onto the control means of such control member , said position detector means alternatively being a contact presence sensor or a proximity sensor.
Sanitary module , comprising a folding alcove , for an aircraft , having: a side wall which forms a stationary vertical portion of an outer wall of the sanitary module ; an alcove wall which forms a movable vertical portion of the outer wall of the sanitary module and can be moved into an inner space of the sanitary module ; and two folding connections , which each connect a vertical longitudinal edge of the cubicle alcove wall to a vertical longitudinal edge of the side wall and form the folding alcove together with the alcove wall ; wherein the folding connections can be folded out into the inner space of the sanitary space so that the alcove wall can be moved into the inner space of the sanitary module to create a folded-out state of the folding alcove in such a way that an alcove is formed in the outer wall of the sanitary module by the alcove wall and the folding connections ; and wherein the folding connections can be folded in to create a folded-in state of the folding alcove in such a way that the alcove wall is in contact with the side wall . a side wall which forms a stationary vertical portion of an outer wall of the sanitary module ; an alcove wall which forms a movable vertical portion of the outer wall of the sanitary module and can be moved into an inner space of the sanitary module ; and two folding connections , which each connect a vertical longitudinal edge of the cubicle alcove wall to a vertical longitudinal edge of the side wall and form the folding alcove together with the alcove wall ; wherein the folding connections can be folded out into the inner space of the sanitary space so that the alcove wall can be moved into the inner space of the sanitary module to create a folded-out state of the folding alcove in such a way that an alcove is formed in the outer wall of the sanitary module by the alcove wall and the folding connections ; and wherein the folding connections can be folded in to create a folded-in state of the folding alcove in such a way that the alcove wall is in contact with the side wall .
A ball launching machine, comprising: a base unit comprising an enclosure ; a pair of counter-rotating flywheels disposed within the enclosure ; and a meter wheel disposed within the enclosure , the meter wheel located adjacent to an inlet to the pair of counter-rotating flywheels such that the meter wheel can selectively pass the balls to the pair of counter-rotating flywheels via rotation of the meter wheel , a drive motor coupled to the meter wheel , characterized by a controller electrically coupled to the drive motor , wherein the controller is configured to selectively actuate the drive motor to turn the meter wheel , and wherein the controller is configured to determine that one of the balls has been metered by monitoring a load value of the drive motor . a base unit comprising an enclosure ; a pair of counter-rotating flywheels disposed within the enclosure ; and a meter wheel disposed within the enclosure , the meter wheel located adjacent to an inlet to the pair of counter-rotating flywheels such that the meter wheel can selectively pass the balls to the pair of counter-rotating flywheels via rotation of the meter wheel , a drive motor coupled to the meter wheel , characterized by a controller electrically coupled to the drive motor , wherein the controller is configured to selectively actuate the drive motor to turn the meter wheel , and wherein the controller is configured to determine that one of the balls has been metered by monitoring a load value of the drive motor .
Recording electrode for recording EMG potentials during intraoperative recurrence monitoring for identification and functional control of the recurrent laryngeal nerve during a surgical procedure, characterised by at least two hook elements which can be adjusted relative to each other using a spring element and have or form contact areas and can be clamped under the effect of a prestressing force of the spring element on the prepared thyroid cartilage of a patient.
An indoor unit of a refrigeration apparatus to be installed at a ceiling, the indoor unit comprising: a casing having a plurality of blow-out ports and a blow-in port provided in a lower surface; and a plate-shaped member installed below the blow-in port , wherein the casing accommodates a heat exchanger allowing a refrigerant larger in specific gravity than air to flow therein, a control board , a support member supporting the control board , and a gas sensor , wherein the indoor unit is further comprising: a drain pan installed below the heat exchanger , wherein the drain pan has a first surface facing a bottom of the heat exchanger , and a second surface other than the first surface ; and a bell mouth guiding air introduced via the blow-in port , wherein the drain pan is installed around the bell mouth ; characterized in that the indoor unit further comprises a filter installed between the blow-in port and the plate-shaped member ; wherein the gas sensor is detachable and attachable when the plate-shaped member is shifted and the filter is detached, the gas sensor is installed at the second surface of the drain pan , and the gas sensor is installed adjacent to the support member and the gas sensor is configured to detect refrigerant leakage filling a space between the bell mouth and the filter . a casing having a plurality of blow-out ports and a blow-in port provided in a lower surface; and a plate-shaped member installed below the blow-in port , wherein the casing accommodates a heat exchanger allowing a refrigerant larger in specific gravity than air to flow therein, a control board , a support member supporting the control board , and a gas sensor , a heat exchanger allowing a refrigerant larger in specific gravity than air to flow therein, a control board , a support member supporting the control board , and a gas sensor , a drain pan installed below the heat exchanger , wherein the drain pan has a first surface facing a bottom of the heat exchanger , and a second surface other than the first surface ; and a bell mouth guiding air introduced via the blow-in port , wherein the drain pan is installed around the bell mouth ; characterized in that the indoor unit further comprises a filter installed between the blow-in port and the plate-shaped member ; wherein the gas sensor is detachable and attachable when the plate-shaped member is shifted and the filter is detached, the gas sensor is installed at the second surface of the drain pan , and the gas sensor is installed adjacent to the support member and the gas sensor is configured to detect refrigerant leakage filling a space between the bell mouth and the filter .