mhurhangee/patent-ind-claim-en huggingface dataset:
Implant for use for the occlusion of aneurysms in the region of vessel branches, in particular bifurcation aneurysms (A), with a mesh structure which - from proximally to distally - comprises the following portions (b) to (d): (b) a fixing portion with which the implant can be supported on a vessel wall, (c) a permeable portion for the region of the vessel branch, and (d) a distal portion in which the implant is radially widened with respect to the portion (b) and which is intended to be placed in the aneurysm (A), wherein a separating zone (T1, T2) which is configured such that it at least partly closes off the neck of the aneurysm is arranged in the region of the portions (c) or (d), the distal portion (d) comprises a plurality of loops connected to the portion (c) and the loops form an angle of between -45° and +175° relative to the longitudinal axis of the implant , wherein a positive angle stands for loops pointing radially outwards and a negative angle for ones pointing radially inwards, characterised in that the separating zone comprises one or more membranes which fill the interior of the loops and bridge gaps between the loops . (b) a fixing portion with which the implant can be supported on a vessel wall, (c) a permeable portion for the region of the vessel branch, and (d) a distal portion in which the implant is radially widened with respect to the portion (b) and which is intended to be placed in the aneurysm (A), wherein a separating zone (T1, T2) which is configured such that it at least partly closes off the neck of the aneurysm is arranged in the region of the portions (c) or (d), the distal portion (d) comprises a plurality of loops connected to the portion (c) and the loops form an angle of between -45° and +175° relative to the longitudinal axis of the implant , wherein a positive angle stands for loops pointing radially outwards and a negative angle for ones pointing radially inwards, characterised in that the separating zone comprises one or more membranes which fill the interior of the loops and bridge gaps between the loops . wherein a separating zone (T1, T2) which is configured such that it at least partly closes off the neck of the aneurysm is arranged in the region of the portions (c) or (d), the distal portion (d) comprises a plurality of loops connected to the portion (c) and the loops form an angle of between -45° and +175° relative to the longitudinal axis of the implant , wherein a positive angle stands for loops pointing radially outwards and a negative angle for ones pointing radially inwards, characterised in that the separating zone comprises one or more membranes which fill the interior of the loops and bridge gaps between the loops .
A lighting device, comprising: Phosphors ; a porous material ; and an electron field emitter , characterized in that the emitter is interposed between the phosphors and a surface to be irradiated with light of the lighting device, and the porous material has heat conductivity and is impregnated with the phosphors. Phosphors ; a porous material ; and an electron field emitter , characterized in that the emitter is interposed between the phosphors and a surface to be irradiated with light of the lighting device, and the porous material has heat conductivity and is impregnated with the phosphors.
Sheet stack for a rotary electric machine, said stack having a central axis (X-X) and comprising sheets which are each inscribed within a disc, the cross section of each of the sheets having a central orifice such that the sheet stack is holed axially in order to receive, by push-fitting, a cylindrical part having a bearing portion having a smooth outer surface, said bearing portion being as one with said sheet stack after push-fitting, the periphery of the central orifice of the cross section of at least one of the sheets of the sheet stack having an overall circular shape centred on the axis (X-X) and provided with projections extending towards said axis (X-X), said projections being, after push-fitting, in contact with the cylindrical part so as to hold said cylindrical part by gripping, the cross section of said sheet of the sheet stack comprising at least one opening having a length (L1) in a tangential direction of said sheet at a radial distance (d) of one of said projections of the central orifice in such a way that the strip of material of the sheet located between the opening and the contact projection can deform, characterized in that the sheet has holes intended to receive means for holding the sheet stack, said holes being arranged on either side of each opening so as to cooperate with said openings in order to increase the flexibility of said sheet .
Coupling control module for a trailer coupling for connection to a vehicle electrical system of a motor vehicle , wherein a trailer can be coupled to the motor vehicle by means of the trailer coupling , wherein the coupling control module actuates and/or monitors at least one electrical function of the trailer coupling , wherein the coupling control module has a bus interface for connection to a digital bus , in particular a CAN bus, of the vehicle electrical system of the motor vehicle , wherein the coupling control module can send bus messages (SN, M) via the bus interface to at least one motor vehicle bus module of the motor vehicle connected to the digital bus and can receive bus messages (SN, M) from at least one motor vehicle bus module , characterised in that the coupling control module is configured for sending at least one configuration bus message (N3) to the at least one motor vehicle bus module via the bus interface , wherein the configuration bus message (N3) contains a configuration identifier to be entered into configuration data of the motor vehicle bus module , wherein the configuration identifier is provided for enabling the at least one motor vehicle bus module to carry out at least one function depending on the presence of the trailer coupling and/or depending on bus messages (SN, M) received from the coupling control module by means of the received configuration identifier while the motor vehicle continues to be operated.
Spunbond made of continuous filaments of thermoplastic material, wherein the continuous filaments are configured as multi-component filaments having a core-sheath configuration, in particular as bicomponent filaments having a core-sheath configuration, wherein the filaments contain at least one slip agent, wherein the slip agent is present in the core component exclusively or in at least 90 wt.%, preferably in at least 95 wt.%, wherein the mass ratio between the core component and the sheath component is 50:50 to 90:10, preferably 60:40 to 85:15, preferably 65:35 to 80:20 and particularly preferably 65:35 to 75:25 and wherein the proportion of the slip agent relative to the complete filament is 250 to 5500 ppm, preferably 500 to 5000 ppm, preferably 700 to 3000 ppm and particularly preferably 700 to 2500 ppm.
Timepiece regulating mechanism comprising a plurality of primary resonators (100; 200) each including at least one inertial weight (102; 202), which is pivotable with respect to a fixed structure to which said inertial weight (102; 202) is suspended by a plurality of flexible strips (103; 203), wherein said regulating mechanism includes mechanical means of synchronization of at least two said primary resonators (100; 200) which include an articulated connection between the two said inertial weights (102; 202) comprised in said two primary resonators (100; 200), which articulated connection is arranged, under normal conditions, to allow pivoting of said two inertial weights in opposite directions of rotation and with close rotation angle values, and is arranged to prevent, during a shock, pivoting of said two inertial weights (102; 202) in the same direction of rotation, characterized in that said regulating mechanism includes an oscillator which includes a dead-beat escapement mechanism which is arranged to cooperate alternately with two said primary resonators (100; 200), on pallet stones comprised in said two inertial weights of said two primary resonators (100; 200).
A backscatter device comprising: an antenna configured to backscatter a carrier signal having a first frequency; baseband circuitry configured to provide a frequency plan for chirp spread spectrum symbols for transmission; a frequency synthesizer coupled to the baseband circuitry and configured to provide a square wave in accordance with the frequency plan; and a switch coupled to the antenna, the switch configured to control an impedance of the backscatter device to backscatter the carrier signal in accordance with the square wave such that the first frequency is mixed with the square wave to transmit a chirp spread spectrum signal comprising the chirp spread spectrum symbols. an antenna configured to backscatter a carrier signal having a first frequency; baseband circuitry configured to provide a frequency plan for chirp spread spectrum symbols for transmission; a frequency synthesizer coupled to the baseband circuitry and configured to provide a square wave in accordance with the frequency plan; and a switch coupled to the antenna, the switch configured to control an impedance of the backscatter device to backscatter the carrier signal in accordance with the square wave such that the first frequency is mixed with the square wave to transmit a chirp spread spectrum signal comprising the chirp spread spectrum symbols.
A method of operating an autonomous driving shuttle, the method comprising: receiving, by the autonomous driving shuttle , information on an operation of the autonomous driving shuttle from a server ; recognizing a guide line by using at least one camera (220-1, 220-2) provided in the autonomous driving shuttle ; and driving the autonomous driving shuttle by using the information on the operation and the recognized guide line , characterized in that the autonomous driving shuttle transmits a message for requesting path identification to the server , when the autonomous driving shuttle fails to recognize the guide line during driving, wherein the server generates image information for an error occurrence point using machine learning or a learning scheme, determines an information for identifying the path using image information stored and updated through the machine learning or the learning scheme, and transmits a path identification message including the information for identifying the path to the autonomous driving shuttle , wherein the autonomous driving shuttle drives along the guide line using the information for identifying the path received from the server . receiving, by the autonomous driving shuttle , information on an operation of the autonomous driving shuttle from a server ; recognizing a guide line by using at least one camera (220-1, 220-2) provided in the autonomous driving shuttle ; and driving the autonomous driving shuttle by using the information on the operation and the recognized guide line , characterized in that the autonomous driving shuttle transmits a message for requesting path identification to the server , when the autonomous driving shuttle fails to recognize the guide line during driving, wherein the server generates image information for an error occurrence point using machine learning or a learning scheme, determines an information for identifying the path using image information stored and updated through the machine learning or the learning scheme, and transmits a path identification message including the information for identifying the path to the autonomous driving shuttle , wherein the autonomous driving shuttle drives along the guide line using the information for identifying the path received from the server .
A controller for performing presence detection with a first sensor system and a second sensor system (31-37), said second sensor system (31-37) being of a different type than said first sensor system , said controller comprising: at least one input interface ; at least one output interface ; and at least one processor configured to: - use said at least one input interface to receive sensor signals from said first sensor system and said second sensor system (31-37), - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system and said sensor range of said second sensor system (31-37) based on said sensor signals, and - use said at least one output interface to control said second sensor system (31-37) to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system , said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas. at least one input interface ; at least one output interface ; and at least one processor configured to: - use said at least one input interface to receive sensor signals from said first sensor system and said second sensor system (31-37), - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system and said sensor range of said second sensor system (31-37) based on said sensor signals, and - use said at least one output interface to control said second sensor system (31-37) to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system , said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas. - use said at least one input interface to receive sensor signals from said first sensor system and said second sensor system (31-37), - determine which first one or more areas of a plurality of areas are in both said sensor range of said first sensor system and said sensor range of said second sensor system (31-37) based on said sensor signals, and - use said at least one output interface to control said second sensor system (31-37) to perform, with respect to said first one or more areas, a second task other than a first task to be performed by said first sensor system , said first task comprising obtaining sensor data to be used for presence detection in said first one or more areas.
A pulse electrochemical machining electrode tool to machine extrusion die cavities, the electrode tool comprising: a base ; a plurality of intersecting walls extending from the base to a distal end; an electrically insulating coating disposed on the plurality of intersecting walls ; an erosion face comprising a cross section of the walls exposed through the electrically insulating coating at the distal end; and channels formed by the plurality of intersecting walls and providing through openings at the erosion face , a chamber at a back surface of the base , wherein the channels provide a conduit for electrolyte from the chamber to the openings. a base ; a plurality of intersecting walls extending from the base to a distal end; an electrically insulating coating disposed on the plurality of intersecting walls ; an erosion face comprising a cross section of the walls exposed through the electrically insulating coating at the distal end; and channels formed by the plurality of intersecting walls and providing through openings at the erosion face , a chamber at a back surface of the base , wherein the channels provide a conduit for electrolyte from the chamber to the openings.
A method of self-orienting an image in an imaging device comprising a scanner and a display, wherein said method comprises: Calibrating an orientation of a sensor operably fixed to said scanner; Calculating a transformation matrix from said orientation, when the Z axis of the scanner and the sensor is aligned, and the X-Y plane is rotated an angle θ; Obtaining a predetermined display orientation by aligning a default scanning orientation of the scanner along an axis; Imaging with the scanner and obtaining new scanner orientations; and Comparing the new scanner orientations with the predetermine display orientation to determine the rotational angle θ characterized in that the method further comprises: Setting a predetermined B-scan orientation; Calibrating a scanning angle of said scanner to fulfill a driving waveform requirements by Adjusting the scanning angle by an adjustment angle which is determined based on the rotational angle, and Converting the adjustment angle to drive the waveform requirement of said scanner; with the proviso that said method does not involve a method for treatment of the human or animal body by surgery practiced on such a body. Calibrating an orientation of a sensor operably fixed to said scanner; Calculating a transformation matrix from said orientation, when the Z axis of the scanner and the sensor is aligned, and the X-Y plane is rotated an angle θ; Obtaining a predetermined display orientation by aligning a default scanning orientation of the scanner along an axis; Imaging with the scanner and obtaining new scanner orientations; and Comparing the new scanner orientations with the predetermine display orientation to determine the rotational angle θ Setting a predetermined B-scan orientation; Calibrating a scanning angle of said scanner to fulfill a driving waveform requirements by Adjusting the scanning angle by an adjustment angle which is determined based on the rotational angle, and Converting the adjustment angle to drive the waveform requirement of said scanner;
A polyimide film comprising an imide monomolecular compound as an organic filler and having a thermal conductivity (k) of 0.2 W/m·K or more of as defined by Equation 1: Thermal conductivity k = C × ρ × α wherein, C, p and α represent a specific heat (J/g·K), a density (g/cm 3 ) and a thermal diffusivity (mm 2 /sec) of the polyimide film, respectively, C, ρ and α being measured according to the methods in the description, and wherein the polyimide film is prepared by using 3,3',4,4'-biphenylcarboxylic dianhydride (s-BPDA) and 4,4'-paraphenylenediamine (pPDA) as a polymerization component. wherein, C, p and α represent a specific heat (J/g·K), a density (g/cm 3 ) and a thermal diffusivity (mm 2 /sec) of the polyimide film, respectively, C, ρ and α being measured according to the methods in the description, and wherein the polyimide film is prepared by using 3,3',4,4'-biphenylcarboxylic dianhydride (s-BPDA) and 4,4'-paraphenylenediamine (pPDA) as a polymerization component.
Press connection system for non-detachable connection of a fitting to a pipe , - with a press jaw , - with a press contour formed on the inside of the press jaw , - wherein the press contour has a cylindrical press section , - with a fitting , - with a fitting base body and a press sleeve forming a press chamber , - wherein a sealing ring is arranged at the proximal end of the press chamber relative to the fitting main body and a cutting ring is arranged at the distal end of the press chamber relative to the fitting main body , - wherein the cutting ring has a central cylindrical portion , cutting elements disposed at the distal end and cutting elements disposed at the proximal end, characterised in - that the press contour has a distal press section adjacent to the cylindrical press section , which is conical at least in sections, and a proximal press section adjacent to the cylindrical press section , which is conical at least in sections, - that the distal press portion is formed to reshape the distal end of the cutting ring radially inwardly when the press sleeve is pressed radially, - that the cylindrical press portion is formed to reshape the proximal end of the cutting ring radially inwardly upon the radial pressing of the press sleeve , and - that the proximal press portion is formed to reshape the sealing ring radially inwardly upon the radial pressing of the press sleeve . - with a press jaw , - with a press contour formed on the inside of the press jaw , - wherein the press contour has a cylindrical press section , - with a fitting , - with a fitting base body and a press sleeve forming a press chamber , - wherein a sealing ring is arranged at the proximal end of the press chamber relative to the fitting main body and a cutting ring is arranged at the distal end of the press chamber relative to the fitting main body , - wherein the cutting ring has a central cylindrical portion , cutting elements disposed at the distal end and cutting elements disposed at the proximal end, characterised in - that the press contour has a distal press section adjacent to the cylindrical press section , which is conical at least in sections, and a proximal press section adjacent to the cylindrical press section , which is conical at least in sections, - that the distal press portion is formed to reshape the distal end of the cutting ring radially inwardly when the press sleeve is pressed radially, - that the cylindrical press portion is formed to reshape the proximal end of the cutting ring radially inwardly upon the radial pressing of the press sleeve , and - that the proximal press portion is formed to reshape the sealing ring radially inwardly upon the radial pressing of the press sleeve .
Method for determining set-up families for a pick-and-place line for populating circuit boards with electronic components of one or more component types, wherein the method comprises the following steps: - detecting a predetermined or predeterminable number of set-up families , - wherein a set-up family is defined as a quantity of circuit boards that can be populated on a pick-and-place line without changing the quantity of component types that are kept ready for population on the pick-and-place line; - wherein an assignment of circuit boards to be distributed to the detected number of set-up families is optimized by means of integer linear programming in such a way that the sum of the numbers of component types per set-up family is minimized, wherein a maximum threshold value in the form of a maximum degree of filling is predetermined for the quantity of component types that are kept ready for population on the pick-and-place line, and - populating the circuit boards in the set-up family assigned to them. - detecting a predetermined or predeterminable number of set-up families , - wherein a set-up family is defined as a quantity of circuit boards that can be populated on a pick-and-place line without changing the quantity of component types that are kept ready for population on the pick-and-place line; - wherein an assignment of circuit boards to be distributed to the detected number of set-up families is optimized by means of integer linear programming in such a way that the sum of the numbers of component types per set-up family is minimized, wherein a maximum threshold value in the form of a maximum degree of filling is predetermined for the quantity of component types that are kept ready for population on the pick-and-place line, and - populating the circuit boards in the set-up family assigned to them.
A method for negatively isolating a polymerase complex from a mixed population of unbound polymerase complex components, said method comprising: (a) providing a reaction mixture comprising polymerase complex components, and a plurality of polymerase complexes each comprising a polymerase enzyme bound to a polynucleotide template; (b) binding unbound polymerase enzyme to a capture oligonucleotide comprising a purification moiety to form a capture oligonucleotide polymerase enzyme composite; and (c) binding said capture oligonucleotide polymerase enzyme composite to a solid support comprising a purification moiety-binding compound, thereby isolating said polymerase complexes from said polymerase-polynucleotide complex components. (a) providing a reaction mixture comprising polymerase complex components, and a plurality of polymerase complexes each comprising a polymerase enzyme bound to a polynucleotide template; (b) binding unbound polymerase enzyme to a capture oligonucleotide comprising a purification moiety to form a capture oligonucleotide polymerase enzyme composite; and (c) binding said capture oligonucleotide polymerase enzyme composite to a solid support comprising a purification moiety-binding compound,