mhurhangee/patent-ind-claim-en huggingface dataset:
An image processor configured to extract at least one uneven area corresponding to uneven dyeing from an image of a dyed knit fabric (S), the image processor performing: an edge detecting process of detecting an edge included in the image ; a first extracting process of extracting at least one high-contrast area in which a gradient of the edge is equal to or higher than a predetermined value; and a second extracting process of extracting an area in which an aspect ratio is equal to or higher than a first predetermined value as the at least one uneven area from among the at least one high-contrast area , the aspect ratio being a ratio of a size of the area in a course direction with respect to a size of the area in a wale direction, wherein after the second extracting process, two or more of the at least one uneven area , in which a distance between the two or more of the at least one uneven area in the wale direction is equal to or less than a second predetermined value and in which a distance between the two or more of the at least one uneven area in the course direction is equal to or less than a third predetermined value are connected with one another, and/or wherein before the second extracting process, the image is corrected so that the course direction of the knit fabric (S) shown in the image is parallel to an X-axis of the image . an edge detecting process of detecting an edge included in the image ; a first extracting process of extracting at least one high-contrast area in which a gradient of the edge is equal to or higher than a predetermined value; and a second extracting process of extracting an area in which an aspect ratio is equal to or higher than a first predetermined value as the at least one uneven area from among the at least one high-contrast area , the aspect ratio being a ratio of a size of the area in a course direction with respect to a size of the area in a wale direction, wherein after the second extracting process, two or more of the at least one uneven area , in which a distance between the two or more of the at least one uneven area in the wale direction is equal to or less than a second predetermined value and in which a distance between the two or more of the at least one uneven area in the course direction is equal to or less than a third predetermined value are connected with one another, and/or wherein before the second extracting process, the image is corrected so that the course direction of the knit fabric (S) shown in the image is parallel to an X-axis of the image .
A tyre comprising a tread portion comprising a land region divided by a first edge extending in a tyre circumferential direction and a second edge extending in the tyre circumferential direction, wherein the land region is provided with a plurality of sipes each extending between the first edge and the second edge , the plurality of the sipes includes inclined sipes and bent sipes , the inclined sipes are inclined in a first direction with respect to a tyre axial direction, each of the bent sipes includes first inclined elements inclined in the first direction with respect to the tyre axial direction and a second inclined element inclined in a direction opposite to the first inclined elements with respect to the tyre axial direction, each of the inclined sipes is configured to have a depth larger at a center portion thereof than at both end portions thereof, and each of the bent sipes is configured to have a depth smaller at a center portion thereof than at both end portions thereof, characterised in that in each of the bent sipes , the end portions are formed by the first inclined elements and the center portion is formed by the second inclined element , and wherein a length (L4) in the tyre axial direction of the second inclined element is larger than a length (L3) in the tyre axial direction of each of the first inclined elements .
Method for configuring a digital audio filter , comprising: providing a decaying impulse response in the time domain, representing at least part of the transfer characteristics of the digital audio filter ; determining the poles and zeros of the decaying impulse response in the z-domain; selecting at least one subset of the poles and zeros of the decaying impulse response, wherein said selecting of at least one subset of the poles and zeros of the decaying impulse response comprises grouping poles and zeros of the decaying impulse response in accordance with at least one predefined frequency interval; and for each of the at least one subset of the poles and zeros: determining a respective subset impulse response in the time domain, windowing the respective subset impulse response in the time domain, and configuring the digital audio filter in accordance with the windowed respective subset impulse response (72; 74; 76; 78; 80; 82; 84). providing a decaying impulse response in the time domain, representing at least part of the transfer characteristics of the digital audio filter ; determining the poles and zeros of the decaying impulse response in the z-domain; selecting at least one subset of the poles and zeros of the decaying impulse response, wherein said selecting of at least one subset of the poles and zeros of the decaying impulse response comprises grouping poles and zeros of the decaying impulse response in accordance with at least one predefined frequency interval; and for each of the at least one subset of the poles and zeros: determining a respective subset impulse response in the time domain, windowing the respective subset impulse response in the time domain, and configuring the digital audio filter in accordance with the windowed respective subset impulse response (72; 74; 76; 78; 80; 82; 84). determining a respective subset impulse response in the time domain, windowing the respective subset impulse response in the time domain, and configuring the digital audio filter in accordance with the windowed respective subset impulse response (72; 74; 76; 78; 80; 82; 84).
Arrangement for laser treatment of eye opacification, consisting of a measuring system for obtaining depth information relating to eye structures, a laser system for comminuting eye opacification and having optical elements for coupling the measuring and laser system, an eye tracker unit for detecting axial eye movements, a display unit, and a control and operating unit, characterized in that the measuring system is designed to make available depth information relating to eye structures in the form of depth profiles, in that the display unit is designed to display at least one 2-D image representation of the eye as a live image, in that the control and operating unit is designed to determine the depth of eye structures relative to the depth of the laser focus from the depth profiles and to determine an exclusion zone for laser treatment, for the retina and the capsular bag, and in that the control and operating unit is further designed to generate at least one marking for at least each of the exclusion zones of the retina and capsular bag and the laser focus, the characteristics of which markings correspond to the respective depth in the eye, in order to display these markings on the display unit and overlay these on the live image.
A sealing machine for the sealing of packages , said sealing machine comprising a sealing chamber in which packages can be sealed, wherein the sealing chamber comprises a working platform (E) on which packages can be conveyed; a chamber lid movable relative to the working platform between an open and a closed position; a sealing mechanism for the sealing of packages; and a suction unit for suction of gas from a volume (V) enclosed by the chamber lid and the working platform; wherein the sealing machine further comprises a protective frame kinematically connected to the chamber lid ; characterized in that the protective frame has apertures through which gas can flow from the outer space into the enclosed volume (V).
A blood glucose level measuring chip attachable on a blood glucose level measuring device of a blood glucose level in blood, the chip comprising: a supply port through which the blood is supplied; a flow path having the supply port formed at one end of the flow path; and a blood glucose level measuring reagent disposed on an inner wall defining the flow path, wherein the blood glucose level measuring reagent contains an enzyme having glucose as a substrate, a chromogenic indicator, and an aromatic hydrocarbon having at least one sulfonic acid group being disodium 1,3-benzene disulfonate or trisodium naphthalene-1,3,6-trisulfonate, and an A/B ratio is 3.7 mM to 184.8 mM wherein A (mmol) represents a total molar number of aromatic hydrocarbons contained in the blood glucose level measuring reagent, and B(L) represents a volume of a region in which the blood glucose level measuring reagent and the blood are dissolved. a supply port through which the blood is supplied; a flow path having the supply port formed at one end of the flow path; and a blood glucose level measuring reagent disposed on an inner wall defining the flow path, wherein the blood glucose level measuring reagent contains an enzyme having glucose as a substrate, a chromogenic indicator, and an aromatic hydrocarbon having at least one sulfonic acid group being disodium 1,3-benzene disulfonate or trisodium naphthalene-1,3,6-trisulfonate, and an A/B ratio is 3.7 mM to 184.8 mM wherein A (mmol) represents a total molar number of aromatic hydrocarbons contained in the blood glucose level measuring reagent, and B(L) represents a volume of a region in which the blood glucose level measuring reagent and the blood are dissolved.
A gelable extracellular matrix (ECM) composition comprising a decellularized, enzymatically digested, dried, terminally sterilized, intact extracellular matrix, wherein said composition is capable of forming a gel upon hydration, neutralization to pH 7.2 - 7.8, and warming to a temperature greater than 25°C, wherein the extracellular matrix is preferably bioactive.
Agent for reducing the flammability and/or combustibility of materials, in particular flame retarding agent and/or fire retarding agent, comprising or consisting of a combination and/or a mixture of a) from 30 to 65 wt.-% of boric acid; b) from 30 to 65 wt.-% borax; c) an alkali metal chloride, preferably sodium chloride, in an amount of minimum 0.1 wt.-% and less than 5 wt.-%; and d) if desired, urea up to 5 wt.-%; in each case based on the combination and/or the mixture, as 100 wt.-%. a) from 30 to 65 wt.-% of boric acid; b) from 30 to 65 wt.-% borax; c) an alkali metal chloride, preferably sodium chloride, in an amount of minimum 0.1 wt.-% and less than 5 wt.-%; and d) if desired, urea up to 5 wt.-%;
A drive unit for a drive train of an electrically drivable motor vehicle, in particular a hybrid motor vehicle, comprising a first electric machine , a second electric machine and an output shaft , wherein a rotor of the second electric machine is connected to the output shaft for conjoint rotation and the drive unit additionally has an separating clutch with which a rotor of the first electric machine can be connected to the output shaft for transmitting torque, wherein the drive unit additionally has a first flow system for implementing a flow of a first fluid for at least partially cooling at least one of the electric machines , said flow system being designed in such a way that the first fluid can also be supplied to the separating clutch for cooling and/or lubricating the latter, characterized in that the first flow system of at least either one of the electric machines has a branching into a first cooling path and a second cooling path , so that the electric machine can be cooled in a radial inner chamber formed by its rotor as well as on its radial outer side, and in that the drive unit additionally has a second flow system for implementing a flow of a second fluid, the first flow system and the second flow system being arranged and designed in such a way that heat can be transferred from the first fluid in the first flow system to the second fluid in the second flow system .
A compound of formula (I): or a tautomer, stereoisomer, pharmaceutically acceptable salt, or hydrate thereof, wherein: ring A is an optionally substituted heteroaryl; Q is CR 2 or N; R 1 is hydrogen or alkyl; each R 2 is independently hydrogen, alkyl, halo, hydroxyl, haloalkyl, alkoxy, alkylthio, amino, amido, alkylamino, aminoalkyl, cyano, hydroxyalkyl, -(CH Z ) p C(O)OR 6 , or - (CH 2 ) p OC(O)R 6 ; R 3 is hydrogen, halo, or alkyl; each R 4 and R 5 is independently hydrogen or alkyl; each R 6 is independently hydrogen or alkyl, wherein the alkyl is unsubstituted or substituted with one or more groups independently selected from amino, hydroxyl, halo, and alkoxy; X is S or O; Y is: n is 1, 2, 3 or 4; and p is 0, 1, 2, 3, 4, or 5. ring A is an optionally substituted heteroaryl; Q is CR 2 or N; R 1 is hydrogen or alkyl; each R 2 is independently hydrogen, alkyl, halo, hydroxyl, haloalkyl, alkoxy, alkylthio, amino, amido, alkylamino, aminoalkyl, cyano, hydroxyalkyl, -(CH Z ) p C(O)OR 6 , or - (CH 2 ) p OC(O)R 6 ; R 3 is hydrogen, halo, or alkyl; each R 4 and R 5 is independently hydrogen or alkyl; each R 6 is independently hydrogen or alkyl, wherein the alkyl is unsubstituted or substituted with one or more groups independently selected from amino, hydroxyl, halo, and alkoxy; X is S or O; Y is: n is 1, 2, 3 or 4; and p is 0, 1, 2, 3, 4, or 5.
A method for generating feature maps that depict spatial distributions or patterns of features associated with osteolysis or synovitis, the steps of the method comprising: (a) accessing with a computer system, magnetic resonance imaging (MRI) data acquired from a subject by retrieving the MRI data from a memory or storage device of the computer system; (b) accessing with the computer system, a trained machine learning algorithm that has been trained on training data to generate feature maps associated with at least one of osteolysis or synovitis; (c) inputting the MRI data to the trained machine learning algorithm in order to generate output with the computer system, wherein the output comprises: a first feature map that depicts the spatial distribution of a probability of locations within the subject being associated with at least one of osteolysis or synovitis; a second feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a severity of synovitis at those location; and a third feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a type of synovitis at those locations. (a) accessing with a computer system, magnetic resonance imaging (MRI) data acquired from a subject by retrieving the MRI data from a memory or storage device of the computer system; (b) accessing with the computer system, a trained machine learning algorithm that has been trained on training data to generate feature maps associated with at least one of osteolysis or synovitis; (c) inputting the MRI data to the trained machine learning algorithm in order to generate output with the computer system, wherein the output comprises: a first feature map that depicts the spatial distribution of a probability of locations within the subject being associated with at least one of osteolysis or synovitis; a second feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a severity of synovitis at those location; and a third feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a type of synovitis at those locations. a first feature map that depicts the spatial distribution of a probability of locations within the subject being associated with at least one of osteolysis or synovitis; a second feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a severity of synovitis at those location; and a third feature map that depicts the spatial distribution of a classification of locations within the subject as being associated with a type of synovitis at those locations.
A controller device (7; 8) to be operated by a user, comprising: a generally rectangular plate-shaped housing having one front side and one back side; a display section provided on the front side of the housing; and a projecting portion (59; 59A, 59B) provided so as to project at least at left and right positions on the back side of the housing above a center of the housing to enable the user to hold the controller device (7; 8) by allowing the projection portion to rest on the fingers of the user. a generally rectangular plate-shaped housing having one front side and one back side; a display section provided on the front side of the housing; and a projecting portion (59; 59A, 59B) provided so as to project at least at left and right positions on the back side of the housing above a center of the housing to enable the user to hold the controller device (7; 8) by allowing the projection portion to rest on the fingers of the user.
Device for braking an electric motor comprising a rotor provided with two brushes and a stator comprising at least two half-coils connected in series to the brushes while the motor is nominally activated, which device is characterized in that it comprises a means for underpowering the motor, a means for connecting in series a single half-coil to the rotor brushes and a means for controlling the braking by underpowering the motor until at least one value of a physical quantity reaches a predetermined value, and for connecting in series said single half-coil to the rotor brushes when the value of a physical quantity reaches the predetermined value.
An anode plate , comprising: an anode current collector ; a carbon quantum dot layer , comprising carbon quantum dots with a size less than 10 nm, and formed on a surface of the anode current collector ; and an anode silicon-containing coating layer , formed on a surface of the carbon quantum dot layer away from the anode current collector ; wherein the anode silicon-containing coating layer comprises a silicon-containing coating layer and a graphite coating layer formed on a surface of the silicon-containing coating layer , and the silicon-containing coating layer is located between the graphite coating layer and the carbon quantum dot layer . an anode current collector ; a carbon quantum dot layer , comprising carbon quantum dots with a size less than 10 nm, and formed on a surface of the anode current collector ; and an anode silicon-containing coating layer , formed on a surface of the carbon quantum dot layer away from the anode current collector ; wherein the anode silicon-containing coating layer comprises a silicon-containing coating layer and a graphite coating layer formed on a surface of the silicon-containing coating layer , and the silicon-containing coating layer is located between the graphite coating layer and the carbon quantum dot layer .
A method of processing a moving material, the method comprising: moving a material through a first rotary press and a second rotary press spaced from the first rotary press ; driving the first and second rotary presses via a first drive gear directly coupled to a motor ; directly engaging the first drive gear with a first lower spur gear of the first rotary press and a second lower spur gear of the second rotary press , the first drive gear remaining operatively coupled to the first and second lower spur gears of the respective first and second rotary presses during operation of the first and second rotary presses ; and controlling the first drive gear to cause the first rotary press to contact the material at a first position during a first time interval and the second rotary press to contact the material at a second position during a second time interval, wherein the first and second time intervals define a cycle of the first and second rotary presses . moving a material through a first rotary press and a second rotary press spaced from the first rotary press ; driving the first and second rotary presses via a first drive gear directly coupled to a motor ; directly engaging the first drive gear with a first lower spur gear of the first rotary press and a second lower spur gear of the second rotary press , the first drive gear remaining operatively coupled to the first and second lower spur gears of the respective first and second rotary presses during operation of the first and second rotary presses ; and controlling the first drive gear to cause the first rotary press to contact the material at a first position during a first time interval and the second rotary press to contact the material at a second position during a second time interval, wherein the first and second time intervals define a cycle of the first and second rotary presses .
A heat transferring module adapted to contact a heat element , comprising: a first plate ; a second plate connected to the first plate to form a cavity (CA) therewith, the cavity (CA) extending along an extension direction of a reference plane (E); and a working fluid located in the cavity (CA), wherein the cavity (CA) lies in a first area (A1), a portion of the first plate or a portion of the second plate is extending beyond the cavity (CA) and said extending plate portion lies in a second area (A2), and the fluid located in said cavity in the first area (A1) is configured to transfer heat by heat convection, and the extending plate portion located in the second area (A2) is configured to transfer heat by heat conduction; wherein said cavity is configured as a vapor chamber, and said extending plate portion is configured as a thermal plate, and the first plate and the second plate are not overlapped within the second area . a first plate ; a second plate connected to the first plate to form a cavity (CA) therewith, the cavity (CA) extending along an extension direction of a reference plane (E); and a working fluid located in the cavity (CA), wherein the cavity (CA) lies in a first area (A1), a portion of the first plate or a portion of the second plate is extending beyond the cavity (CA) and said extending plate portion lies in a second area (A2), and the fluid located in said cavity in the first area (A1) is configured to transfer heat by heat convection, and the extending plate portion located in the second area (A2) is configured to transfer heat by heat conduction; wherein said cavity is configured as a vapor chamber, and said extending plate portion is configured as a thermal plate, and the first plate and the second plate are not overlapped within the second area .