mhurhangee/patent-ind-claim-en huggingface dataset:
A deployment assembly for pulling, pushing, or blowing a plurality of preterminated fiber optic cables of a multi fiber cable through a duct having a cross sectional footprint smaller than a cross-sectional footprint of a fiber optic connector configured to be connected to the plurality of preterminated fiber optic cables , comprising: a sleeve ; a rod configured to be coupled with the sleeve ; a plurality of dust caps ; wherein the sleeve is configured to receive a multi fiber cable and to permit a plurality of preterminated fiber optic cables of the multi fiber cable to pass through the sleeve ; wherein the rod includes a first end configured to be coupled with the sleeve ; wherein each of the plurality of dust caps is configured to be coupled with a ferrule of one of the preterminated fiber optic cables ; wherein each of the plurality of dust caps is configured to be coupled with the rod , thereby coupling the preterminated fiber optic cables with the rod ; wherein the preterminated fiber optic cables are configured to be assembled with a fiber optic connector ; wherein the deployment assembly has a cross-sectional footprint that is smaller than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable ; wherein the plurality of preterminated fiber optic cables are configured to be pushed, pulled, or blown together through a duct having an inner diameter that is less than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable . a sleeve ; a rod configured to be coupled with the sleeve ; a plurality of dust caps ; wherein the sleeve is configured to receive a multi fiber cable and to permit a plurality of preterminated fiber optic cables of the multi fiber cable to pass through the sleeve ; wherein the rod includes a first end configured to be coupled with the sleeve ; wherein each of the plurality of dust caps is configured to be coupled with a ferrule of one of the preterminated fiber optic cables ; wherein each of the plurality of dust caps is configured to be coupled with the rod , thereby coupling the preterminated fiber optic cables with the rod ; wherein the preterminated fiber optic cables are configured to be assembled with a fiber optic connector ; wherein the deployment assembly has a cross-sectional footprint that is smaller than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable ; wherein the plurality of preterminated fiber optic cables are configured to be pushed, pulled, or blown together through a duct having an inner diameter that is less than a cross-sectional footprint of a fiber optic connector that is configured to be assembled with the preterminated fiber optic cable .
A memory chip, comprising: a plurality of memory banks, each memory bank having a bank controller, characterized in that each memory bank comprises a plurality of memory sub-banks , each memory sub-bank having a sub-bank row decoder and a sub-bank column decoder for allowing reads and writes to locations on the memory sub-bank, each memory sub-bank comprising: a plurality of memory mats (1190a-1- 1190a-x; 1190b-1-1190b-2, 1190b-x; 1190c-1-1190c-x), each memory mat (1190a-1- 1190a-x; 1190b-1-1190b-2, 1190b-x; 1190c-1-1190c-x) having a plurality of memory cells (1260a-1-1260a-x; 1260b-1-1260b-x) and a mat row decoder and a mat column decoder, wherein the sub-bank row decoders and the sub-bank column decoders are configured to receive read and write requests from the bank controller and process read and write requests received from the bank controller and the mat row decoders and mat column decoders process read and write requests from the sub-bank row decoders and the sub-bank column decoders respectively.
A sacrocolpopexy support comprising: a head section extending from a first end portion to a second end portion ; a leg section having a first leg portion placed on and in longitudinal alignment with a second leg portion ; a first connector securing the leg section to the second end portion of the head section ; and a second connector securing the first leg portion to the second leg portion to form a closed joint that defines a space between the first leg portion and the second leg portion ; wherein an end of the second end portion of the head section terminates at a location exterior to the closed joint outside of the space between the first leg portion and the second leg portion ; characterised in that the leg section has a middle portion , with the first leg portion extending from the middle portion to a first end of the leg section and the second leg portion extending from the middle portion to a second end of the leg section, and a fold is formed in the middle portion of the leg section such that the first leg portion is folded into contact with the second leg portion ; wherein the first connector is connected through the first leg portion and the second end portion of the head section and not connected to the second leg portion ; wherein the second connector is connected through the first leg portion , the second end portion of the head section , and the second leg portion . a head section extending from a first end portion to a second end portion ; a leg section having a first leg portion placed on and in longitudinal alignment with a second leg portion ; a first connector securing the leg section to the second end portion of the head section ; and a second connector securing the first leg portion to the second leg portion to form a closed joint that defines a space between the first leg portion and the second leg portion ; wherein an end of the second end portion of the head section terminates at a location exterior to the closed joint outside of the space between the first leg portion and the second leg portion ; characterised in that the leg section has a middle portion , with the first leg portion extending from the middle portion to a first end of the leg section and the second leg portion extending from the middle portion to a second end of the leg section, and a fold is formed in the middle portion of the leg section such that the first leg portion is folded into contact with the second leg portion ; wherein the first connector is connected through the first leg portion and the second end portion of the head section and not connected to the second leg portion ; wherein the second connector is connected through the first leg portion , the second end portion of the head section , and the second leg portion .
A method for adjusting transmitter output power, P TX , the method comprising: Sensing , by a proximity sensor communicatively coupled to a transmitting device , an object proximate to the transmitting device ; determining whether the P TX of an antenna operatively coupled to the transmitting device is greater than a specific absorption rate SAR threshold output power, P SARMAX , when the proximity sensor senses the object proximate to the transmitting device ; obtaining an image from a camera , when it is determined that the P TX of the antenna is greater than the P SARMAX ; analyzing the image to determine whether the transmitting device is proximate to a portion of a human body, when it is determined that the P TX of the antenna is greater than the P SARMAX ; and adjusting the P TX of the antenna to be less than or equal to P SARMAX , when it is determined that the transmitting device is proximate to the portion of the human body or when it cannot be determined whether the transmitting device is proximate to a portion of a human body. Sensing , by a proximity sensor communicatively coupled to a transmitting device , an object proximate to the transmitting device ; determining whether the P TX of an antenna operatively coupled to the transmitting device is greater than a specific absorption rate SAR threshold output power, P SARMAX , when the proximity sensor senses the object proximate to the transmitting device ; obtaining an image from a camera , when it is determined that the P TX of the antenna is greater than the P SARMAX ; analyzing the image to determine whether the transmitting device is proximate to a portion of a human body, when it is determined that the P TX of the antenna is greater than the P SARMAX ; and adjusting the P TX of the antenna to be less than or equal to P SARMAX , when it is determined that the transmitting device is proximate to the portion of the human body or when it cannot be determined whether the transmitting device is proximate to a portion of a human body.
Cover system for covering an exterior wall of a building , in particular a facade or a roof , wherein the cover system is provided with a cover element having a cover surface for covering at least a part of the exterior wall and a bearing support for bearing the cover element relative to the exterior wall, wherein one of the cover element and the bearing support is provided with a first connection lip and the other of the cover element and the bearing support is provided with a first retaining member for retaining the first connection lip , wherein the first connection lip is at least partially flexible and adapted for, in placed condition of the cover element on the bearing support , in cooperation with the first retaining member forming a first connection between the cover element and the bearing support , wherein the first connection is substantially flexible in a first direction (F1, F2) substantially parallel to the cover surface of the cover element , said cover system being characterized in that the cover element is provided with one or more parting lines parting the cover element in the cover surface into two or more parts , wherein the one or more parting lines are one or more predetermined break connections.
Work tool , wherein the work tool is a corded garden tool with an electric motor or a cordless garden tool with a battery-operated electric motor , in particular a hedge trimmer, a garden blower, a chain-saw or a lawnmower, comprising a motor , which is arranged in a housing and is intended for driving the work tool , wherein the housing has at least one air inlet for supplying cooling air to the motor and at least one air outlet for discharging waste air from the housing , and wherein a sound-absorbing absorption element is arranged in the housing in such a way that the absorption element also acts as a filter for the cooling air and the waste air.
Seat having a foldable structure for vehicles comprising a frame and a seating surface being pivotably arranged with respect to the frame by means of a hinge , the hinge comprising a joint , which comprises a means for adjusting the angular pivoting range (a) of the hinge, which means traverses the joint tangentially to the hinge axis and is configured to be activated from the outside, wherein the joint is formed by a first bearing sleeve and a second bearing sleeve and in which the second bearing sleeve is rotatably supported relative to the first bearing sleeve , the turning range (a) of which is adjustable by said means , and wherein the first bearing sleeve is fixed with respect to the frame and the second bearing sleeve is fixed with respect to a pivot shaft supporting the seating surface , characterized in that the first bearing sleeve and the second bearing sleeve are traversed by a common support shaft being fixed to the frame .
A method for preparing Compound I comprising isolating a crystalline ethanol solvate of Compound IIa and converting the ethanol solvate of Compound Ila to Compound I or a solvate thereof.
A method for the frequency correction of an oscillator of a sensor node of a sensor network with the method steps: - receiving a transmission signal of a first transmitter with a modulation according to orthogonal frequency-division multiplexing (OFDM); - determining the frequency deviation of the oscillator based on the received transmission signal; - determining a correction signal for the correction of the frequency deviation of the oscillator ; - correcting the frequency of the oscillator with the correction signal; wherein the sensor node is communicatively connected to further sensor nodes; characterised in that the sensor node receives information about a second transmitter currently used for frequency correction from a further sensor node and subsequently continues the frequency correction with this transmitter when shadowing of a first reference transmitter is recognised on the basis of a signal-to-interference ratio or symbol/noise ratio falling below a predefined value. - receiving a transmission signal of a first transmitter with a modulation according to orthogonal frequency-division multiplexing (OFDM); - determining the frequency deviation of the oscillator based on the received transmission signal; - determining a correction signal for the correction of the frequency deviation of the oscillator ; - correcting the frequency of the oscillator with the correction signal;
A high-speed tension testing machine for applying a tension testing force to a test piece , which is gripped at both ends by a movable side grip tool and a fixed side grip tool , by moving the movable side grip tool at high speed, the high-speed tension testing machine comprising: a displacement meter comprising a movable body and a fixed body for measuring displacement of the test piece based on a positional relationship between the movable body and the fixed body ; and a support member connected to the movable side grip tool and supporting the movable body of the displacement meter, wherein a step part is formed in an area of the movable side grip tool on a side opposite to the test piece , the step part including a small-diameter part and a large-diameter part , and a bottom surface of the support member on the side of the movable side grip tool and a top surface of the large-diameter part of the step part on the side of the support member are in surface contact with each other. a displacement meter comprising a movable body and a fixed body for measuring displacement of the test piece based on a positional relationship between the movable body and the fixed body ; and a support member connected to the movable side grip tool and supporting the movable body of the displacement meter, wherein a step part is formed in an area of the movable side grip tool on a side opposite to the test piece , the step part including a small-diameter part and a large-diameter part , and a bottom surface of the support member on the side of the movable side grip tool and a top surface of the large-diameter part of the step part on the side of the support member are in surface contact with each other.
An embedded device comprising: a plurality of microcontrollers, each comprising a central processing unit (310; 340) and a plurality of peripheral devices (170, 175, 180, 185; 210..240), wherein each peripheral device (170, 175, 180, 185; 210..240) may comprise an output; a housing comprising a plurality of assignable external pins ; and a plurality of peripheral pin selection modules for each of the microcontrollers, wherein each peripheral pin selection module is configured to be programmable to assign an assignable external pin to one of the plurality of peripheral devices (170, 175, 180, 185; 210..240) of its associated microcontroller, characterized by ownership logic (110; 370) programmable to assign one of the assignable external pins to one of the plurality of microcontrollers, wherein ownership for the assignable external pin is programmed into pin ownership configuration bits stored in non-volatile flash memory, and wherein the assignable external pin comprises an associated pin multiplexer controlled by the pin ownership configuration bits, wherein the pin ownership configuration bits are configured during programming, and wherein the flash memory comprises write lock logic to prevent accidental pin configuration changes. a plurality of microcontrollers, each comprising a central processing unit (310; 340) and a plurality of peripheral devices (170, 175, 180, 185; 210..240), wherein each peripheral device (170, 175, 180, 185; 210..240) may comprise an output; a housing comprising a plurality of assignable external pins ; and a plurality of peripheral pin selection modules for each of the microcontrollers, wherein each peripheral pin selection module is configured to be programmable to assign an assignable external pin to one of the plurality of peripheral devices (170, 175, 180, 185; 210..240) of its associated microcontroller, characterized by ownership logic (110; 370) programmable to assign one of the assignable external pins to one of the plurality of microcontrollers, wherein ownership for the assignable external pin is programmed into pin ownership configuration bits stored in non-volatile flash memory, and wherein the assignable external pin comprises an associated pin multiplexer controlled by the pin ownership configuration bits, wherein the pin ownership configuration bits are configured during programming, and wherein the flash memory comprises write lock logic to prevent accidental pin configuration changes.
A system comprising a loudspeaker mounting frame and a cabinet element , said loudspeaker mounting frame having a central opening for receiving a loudspeaker membrane and a plurality of through holes surrounding said central opening for receiving fixing means , said loudspeaker mounting frame being mounted on the cabinet element by fixing means entering in said plurality of through holes , characterised in that : - said plurality of through holes is tapered, so that the wide side of said through holes is at a first side of the loudspeaker mounting frame , - said loudspeaker mounting frame is mounted on a convex part of the cabinet element , said convex part making contact with said first side of the loudspeaker mounting frame and - said fixing means have been entered from the narrow side of said through holes . - said plurality of through holes is tapered, so that the wide side of said through holes is at a first side of the loudspeaker mounting frame , - said loudspeaker mounting frame is mounted on a convex part of the cabinet element , said convex part making contact with said first side of the loudspeaker mounting frame and - said fixing means have been entered from the narrow side of said through holes .
Flatbed laser plotter for processing a job for cutting, engraving, marking and/or lettering a preferably flat workpiece , which plotter has at least one housing with a processing chamber for positioning a workpiece , wherein said housing has at least one irradiation source in the form of a laser and a control unit for controlling the carriage , which is operated by means of preferably a belt drive, with a focusing unit arranged thereon so as to be movable, wherein between the carriage and a processing surface of the processing chamber an extraction bar is arranged for extracting the exhaust gases or vapors , respectively, which are produced by a laser beam during the processing of the workpiece , wherein a plurality of extraction openings of the extraction bar are arranged or aligned, respectively, parallel to the processing surface for generating a horizontal extraction flow , characterized in that the extraction bar is attached to the carriage and is formed L-shaped, and the extraction openings are electronically controllable and are divided into a plurality of segments (24 to 26), wherein the segments (24 to 26) are not only activatable in dependence on the position of the focusing unit , but the segments (24 to 26) not located in the vicinity are deactivatable.
A crystalline form of 1,5-anhydro-3-({5-chloro-4-[4-fluoro-2-(2-hydroxypropan-2-yl)-1-(propan-2-yl)-1H-benzimidazol-6-yl]pyrimidin-2-yl}amino)-2,3-dideoxy-D-threo-pentitol monohydrate (Form 2), having a 19 F solid state NMR spectrum comprising resonance (ppm) values of: -126.1 and -125.6 ppm ± 0.2 ppm.
A manifold for reduced vortex shedding, the manifold comprising: a first conduit section ; a second conduit section ; a splitter section positioned between the first conduit section and the second conduit section , the splitter section including a first splitter face facing the first conduit section ; and being characterised in that it further comprises: a first protrusion , at least a portion of which is positioned on the first splitter face , wherein the first protrusion disturbs or breaks up a flow at the splitter section, providing for the separation of fluid into streams that produce fewer coherent vortices. a first conduit section ; a second conduit section ; a splitter section positioned between the first conduit section and the second conduit section , the splitter section including a first splitter face facing the first conduit section ; and being characterised in that it further comprises: a first protrusion , at least a portion of which is positioned on the first splitter face , wherein the first protrusion disturbs or breaks up a flow at the splitter section, providing for the separation of fluid into streams that produce fewer coherent vortices.
A method for locating a substrate, the method comprising: driving a picker including a picker tip towards the substrate; providing at least one output value during the driving step; performing a reference drive, wherein the picker is driven past the substrate, and obtaining at least one reference output value or range of values during the reference drive step; contacting the substrate with the picker tip , providing a contact value during the contacting step; overtraveling the substrate with the picker tip , wherein overtraveling is the continued driving of the picker including the picker tip even after the picker including the picker tip has contacted the substrate; and providing at least one overtravel value during the overtraveling step; and locating the substrate by calculating the difference between the at least one reference output value or range of values and the at least one overtravel value; wherein the location of the substrate is at a point where the difference is equal to or greater than a threshold; wherein the at least one output value is due to an expected change in distance between the picker tip and the substrate during the driving step, wherein the contact value is due to a less-than-expected change in distance between the picker tip and the substrate during the contacting step. driving a picker including a picker tip towards the substrate; providing at least one output value during the driving step; performing a reference drive, wherein the picker is driven past the substrate, and obtaining at least one reference output value or range of values during the reference drive step; contacting the substrate with the picker tip , providing a contact value during the contacting step; overtraveling the substrate with the picker tip , wherein overtraveling is the continued driving of the picker including the picker tip even after the picker including the picker tip has contacted the substrate; and providing at least one overtravel value during the overtraveling step; and locating the substrate by calculating the difference between the at least one reference output value or range of values and the at least one overtravel value; wherein the location of the substrate is at a point where the difference is equal to or greater than a threshold; wherein the at least one output value is due to an expected change in distance between the picker tip and the substrate during the driving step, wherein the contact value is due to a less-than-expected change in distance between the picker tip and the substrate during the contacting step.