mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-piece fastener comprising: a fastening collar comprising: a first collar end ; and a second collar end , wherein a collar cavity extends from the first collar end to the second collar end; and a pin configured to be at least partially received by the collar cavity, the pin comprising a first pin end comprising a head portion ; a second pin end comprising a pull region , wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus ; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank. a fastening collar comprising: a first collar end ; and a second collar end , wherein a collar cavity extends from the first collar end to the second collar end; and a first collar end ; and a second collar end , wherein a collar cavity extends from the first collar end to the second collar end; and a pin configured to be at least partially received by the collar cavity, the pin comprising a first pin end comprising a head portion ; a second pin end comprising a pull region , wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus ; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank. a first pin end comprising a head portion ; a second pin end comprising a pull region , wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus ; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank.
A compound of Formula (II): wherein: M is a metal or is -H, -H; R 5 , R 10 , and R 15 are independently selected from H, alkoxy, and a linker group having the formula: -L 1 -(X 1 -L 2 ) p -G; wherein p is 0 or 1; L 1 is alkylidene; X 1 is -C(=O)NH- or -NHC(=O)-; L 2 is -(CH 2 CH 2 O) q -alkylene-, wherein q is an integer between 1 and 24, alkylene, or substituted alkylene, optionally wherein substituted alkylene is alkylene substituted by a one or more groups comprising a polyoxyethylene chain and/or an amide group; and G is a bioconjugatable group; R 2 is and R 3 , R 12 , and R 13 are independently selected from H, cyano, halo, perhaloalkyl, sulfonate, sulfonamide, ester, carboxylic acid, formyl, acetyl, a linker group having the formula -L 1 -(X 1 -L 2 ) p -G, and a solubilizing group, wherein the solubilizing group is selected from - aryl-(R s ) w and -alkynyl-aryl-(R s ) w , wherein w is an integer between 0 and 5 inclusive, and R S is a group having the formula: -X 2 -(L 3 ) z -R 17 , wherein: z is 0 or 1; X 2 is -CH 2 NHC(=O)-, -C(=O)NH-alkylene-NH-, or triazolyl; L 3 is -C(=O)-alkylene-C(=O)-NH-, and R 17 is selected from -(C 2 H 4 O) m- R 18 , -C(=O)C 2 H 4 -(OC 2 H 4 ) m OR 18 , and -(C 2 H 4 O) n -C 2 H 4 -C(=O)NH-C(R 19 ) 3 , wherein m is an integer of 12 or more; n is an integer between 1 and 5; R 18 is loweralkyl, optionally methyl; and R 19 is -CH 2 O-C 2 H 4 -C(=O)NH-(C 2 H 4 O) m R 18 ; subject to the proviso that at least one of R 2 , R 3 , R 12 , and R 13 is -aryl-(R s ) w or -alkynyl-aryl-(R s ) w . M is a metal or is -H, -H; R 5 , R 10 , and R 15 are independently selected from H, alkoxy, and a linker group having the formula: -L 1 -(X 1 -L 2 ) p -G; wherein p is 0 or 1; L 1 is alkylidene; X 1 is -C(=O)NH- or -NHC(=O)-; L 2 is -(CH 2 CH 2 O) q -alkylene-, wherein q is an integer between 1 and 24, alkylene, or substituted alkylene, optionally wherein substituted alkylene is alkylene substituted by a one or more groups comprising a polyoxyethylene chain and/or an amide group; and G is a bioconjugatable group; R 2 is and R 3 , R 12 , and R 13 are independently selected from H, cyano, halo, perhaloalkyl, sulfonate, sulfonamide, ester, carboxylic acid, formyl, acetyl, a linker group having the formula -L 1 -(X 1 -L 2 ) p -G, and a solubilizing group, wherein the solubilizing group is selected from - aryl-(R s ) w and -alkynyl-aryl-(R s ) w , wherein w is an integer between 0 and 5 inclusive, and R S is a group having the formula: -X 2 -(L 3 ) z -R 17 , wherein: z is 0 or 1; X 2 is -CH 2 NHC(=O)-, -C(=O)NH-alkylene-NH-, or triazolyl; L 3 is -C(=O)-alkylene-C(=O)-NH-, and R 17 is selected from -(C 2 H 4 O) m- R 18 , -C(=O)C 2 H 4 -(OC 2 H 4 ) m OR 18 , and -(C 2 H 4 O) n -C 2 H 4 -C(=O)NH-C(R 19 ) 3 , wherein m is an integer of 12 or more; n is an integer between 1 and 5; R 18 is loweralkyl, optionally methyl; and R 19 is -CH 2 O-C 2 H 4 -C(=O)NH-(C 2 H 4 O) m R 18 ; subject to the proviso that at least one of R 2 , R 3 , R 12 , and R 13 is -aryl-(R s ) w or -alkynyl-aryl-(R s ) w .
An electronic apparatus comprising: a collapsible flexible display comprising a substantially deformable area and a substantially non-deformable area ; a supporting member having substantially flat surfaces for supporting the substantially non-deformable area of the collapsible flexible display, the collapsible flexible display being arranged on the supporting member ; display drivers for driving the electronic display, the display drivers being arranged on the substantially non-deformable area ; and an interconnecting element for providing an electrical interconnection between the display drivers; wherein the collapsible flexible display is configured to be wrapped about the supporting member in a collapsed state of the collapsible flexible display; characterised in that the supporting member is provided with a cavity located at a position along a surface of the supporting member , the cavity being configured to contact the collapsible flexible display and to receive the display drivers when the collapsible flexible display is in the collapsed state. a collapsible flexible display comprising a substantially deformable area and a substantially non-deformable area ; a supporting member having substantially flat surfaces for supporting the substantially non-deformable area of the collapsible flexible display, the collapsible flexible display being arranged on the supporting member ; display drivers for driving the electronic display, the display drivers being arranged on the substantially non-deformable area ; and an interconnecting element for providing an electrical interconnection between the display drivers; wherein the collapsible flexible display is configured to be wrapped about the supporting member in a collapsed state of the collapsible flexible display; characterised in that the supporting member is provided with a cavity located at a position along a surface of the supporting member , the cavity being configured to contact the collapsible flexible display and to receive the display drivers when the collapsible flexible display is in the collapsed state.
A method for closing an opening in a housing of a door actuator, a closing element being provided therefore, which is inserted into the opening , characterized in that the method comprises the following steps: - providing the closing element with a pot-shaped formation such that the closing element includes a bottom and a surrounding border projecting from the extension plane of the bottom , - forming the opening with a circumferential edge , which reaches into the opening and behind which an undercutting area is formed, and - joining the closing element into the opening so that the bottom points inwards, and - widening the surrounding border in the undercutting area , so that - the closing element pressure-tight closes the inner space of the door actuator. - providing the closing element with a pot-shaped formation such that the closing element includes a bottom and a surrounding border projecting from the extension plane of the bottom , - forming the opening with a circumferential edge , which reaches into the opening and behind which an undercutting area is formed, and - joining the closing element into the opening so that the bottom points inwards, and - widening the surrounding border in the undercutting area , so that - the closing element pressure-tight closes the inner space of the door actuator.
A motor control device configured to drive a first compressor motor that rotates a first rotation body and a second fan motor that rotates a second rotation body, the motor control device comprising: a power supply unit ; a first inverter configured to convert an output from the power supply unit to an alternating current and supply the output to the first compressor motor ; a second inverter configured to convert an output from the power supply unit to an alternating current and supply the output to the second fan motor ; and a control unit configured to drive the second fan motor using rotor position sensorless control; characterised in that : the control unit is configured to not start up the second fan motor during a predetermined operation that a large current flows through the first compressor motor is being performed; and wherein the first rotation body is a compressor , and in case the first compressor motor is driven using rotor position sensorless control, the predetermined operation of the first compressor motor is a synchronous operation of the compressor , a torque control of the compressor , or an overload operation of the compressor . a power supply unit ; a first inverter configured to convert an output from the power supply unit to an alternating current and supply the output to the first compressor motor ; a second inverter configured to convert an output from the power supply unit to an alternating current and supply the output to the second fan motor ; and a control unit configured to drive the second fan motor using rotor position sensorless control; characterised in that : the control unit is configured to not start up the second fan motor during a predetermined operation that a large current flows through the first compressor motor is being performed; and wherein the first rotation body is a compressor , and in case the first compressor motor is driven using rotor position sensorless control, the predetermined operation of the first compressor motor is a synchronous operation of the compressor , a torque control of the compressor , or an overload operation of the compressor . the control unit is configured to not start up the second fan motor during a predetermined operation that a large current flows through the first compressor motor is being performed; and wherein the first rotation body is a compressor , and in case the first compressor motor is driven using rotor position sensorless control, the predetermined operation of the first compressor motor is a synchronous operation of the compressor , a torque control of the compressor , or an overload operation of the compressor .
A memory comprising banks , each bank comprising a first half bank (U) and a second half bank (V) ; a first error checking and correcting unit connected with first half banks and second half banks and configured to check and correct errors of output data of the first half banks and the second half banks ; and a second error checking and correcting unit connected with the first half banks and the second half banks and configured to check and correct errors of output data of the first half banks and the second half banks ; wherein each first half bank comprises an even number of block data buses, and the block data buses are sequentially numbered from zero according to natural numbers; wherein odd-numbered block data buses are connected with the first error checking and correcting unit, and even-numbered block data buses are connected with the second error checking and correcting unit; or the odd-numbered block data buses are connected with the second error checking and correcting unit, and the even-numbered block data buses are connected with the first error checking and correcting unit; the memory being characterized in that each first half bank and each second half bank corresponds to a different column decoding circuit respectively. a first error checking and correcting unit connected with first half banks and second half banks and configured to check and correct errors of output data of the first half banks and the second half banks ; and a second error checking and correcting unit connected with the first half banks and the second half banks and configured to check and correct errors of output data of the first half banks and the second half banks ; wherein each first half bank comprises an even number of block data buses, and the block data buses are sequentially numbered from zero according to natural numbers; wherein odd-numbered block data buses are connected with the first error checking and correcting unit, and even-numbered block data buses are connected with the second error checking and correcting unit; or the odd-numbered block data buses are connected with the second error checking and correcting unit, and the even-numbered block data buses are connected with the first error checking and correcting unit; the memory being characterized in that each first half bank and each second half bank corresponds to a different column decoding circuit respectively.
Method for detecting a visibility-disrupting effect (G), comprising the following steps: - emitting a light beam (FX) from a vehicle (V), the light beam being emitted in the field of view of a camera (CAM) of the vehicle (V); and - determining the presence and the nature of a visibility-disrupting effect (G) from at least one image (I) acquired by the camera (CAM) characterized in that the nature of the visibility-disrupting effect (G) is determined depending on the uniformity and on the granulometry of the visibility-disrupting effect (G) in the image (I). - emitting a light beam (FX) from a vehicle (V), the light beam being emitted in the field of view of a camera (CAM) of the vehicle (V); and - determining the presence and the nature of a visibility-disrupting effect (G) from at least one image (I) acquired by the camera (CAM)
An intervertebral implantation system comprising: - a fusion device capable of expansion and contraction, wherein the fusion device comprises: - a first endplate ; - a second endplate ; and - a body portion positioned between the first endplate and the second endplate , the body portion having a tapered anterior portion and a posterior portion; - a translation member positioned between the first endplate and second endplate and within the body portion , wherein the translation member includes surfaces for engaging the first endplate and second endplate to cause a change in a distance of separation between the first endplate and second endplate ; and - an actuation member received in the translation member , wherein rotation of the actuation member causes translation of the translation member such that surfaces of the translation member engage the first endplate and the second endplate to cause expansion of the fusion device , characterized in that - the actuation member is in a location adjacent to the tapered anterior portion of the body portion . - a fusion device capable of expansion and contraction, wherein the fusion device comprises: - a first endplate ; - a second endplate ; and - a body portion positioned between the first endplate and the second endplate , the body portion having a tapered anterior portion and a posterior portion; - a translation member positioned between the first endplate and second endplate and within the body portion , wherein the translation member includes surfaces for engaging the first endplate and second endplate to cause a change in a distance of separation between the first endplate and second endplate ; and - an actuation member received in the translation member , wherein rotation of the actuation member causes translation of the translation member such that surfaces of the translation member engage the first endplate and the second endplate to cause expansion of the fusion device , characterized in that - the actuation member is in a location adjacent to the tapered anterior portion of the body portion .
A method for applying electrocoagulation treatment to an aqueous dispersion, the method comprising: a: flowing the aqueous dispersion through a region of a flow-through cell comprising sacrificial electrodes and located between opposed electrodes, and b: applying a voltage V across the opposed electrodes whereby a current C is passed between the opposed electrodes through the sacrificial electrodes whereby the sacrificial electrodes donate cations to the aqueous dispersion, wherein the voltage is maintained at or below a value V max when the conductivity of the aqueous dispersion is S min or less; wherein the voltage V is controlled to decrease from V max to V min , as the conductivity of the aqueous dispersion increases from S min to S max , with the current C maintained at a value C min when the conductivity of the aqueous solution is between S min and S max ; and wherein the voltage V is maintained at V min for conductivities of the aqueous dispersion increases from S max to S tot , with the current C increasing from C min to C max as the conductivity of the aqueous solution increases from S max to S tot . a: flowing the aqueous dispersion through a region of a flow-through cell comprising sacrificial electrodes and located between opposed electrodes, and b: applying a voltage V across the opposed electrodes whereby a current C is passed between the opposed electrodes through the sacrificial electrodes whereby the sacrificial electrodes donate cations to the aqueous dispersion,
A method for adapting a vehicle control strategy of an on-road vehicle following a reoccurring fixed route to a predetermined destination, said fixed route extending through at least one geographical zone associated with at least one environmental restriction, said method comprising: determining that said vehicle is approaching one of said at least one geographical zone , accessing a database to acquire historical data collected from previous passages of one or several vehicles through said zone , wherein the historical data is tagged based on at least one time related parameter, the time related parameter being at least one of a time of year, time of month, weekday, and time of day, wherein the historical data comprises information indicative of a vehicle energy consumption when passing through said zone corresponding to the time related parameter, selecting relevant historical data from the database based on a current or forecasted condition of said time related parameter, receiving current vehicle data from another vehicle travelling along said fixed route ahead of the vehicle , and adapting said vehicle control strategy inside said geographical zone based on said historical data, said current vehicle data from the another vehicle and said environmental restriction, wherein said vehicle control strategy is provided to set at least one operating parameter to control the operation of the vehicle . determining that said vehicle is approaching one of said at least one geographical zone , accessing a database to acquire historical data collected from previous passages of one or several vehicles through said zone , wherein the historical data is tagged based on at least one time related parameter, the time related parameter being at least one of a time of year, time of month, weekday, and time of day, wherein the historical data comprises information indicative of a vehicle energy consumption when passing through said zone corresponding to the time related parameter, selecting relevant historical data from the database based on a current or forecasted condition of said time related parameter, receiving current vehicle data from another vehicle travelling along said fixed route ahead of the vehicle , and adapting said vehicle control strategy inside said geographical zone based on said historical data, said current vehicle data from the another vehicle and said environmental restriction, wherein said vehicle control strategy is provided to set at least one operating parameter to control the operation of the vehicle .
An analytical method comprising: directing ions comprising a mixture of protons and non-hydrogen ions onto a sample , wherein the kinetic energy of ions of the mixture is not greater than 50 kilo-electron-Volts (keV); and detecting and measuring X-rays that are emitted from the sample in response to the impingement of the protons and non-hydrogen ions onto the sample . directing ions comprising a mixture of protons and non-hydrogen ions onto a sample , wherein the kinetic energy of ions of the mixture is not greater than 50 kilo-electron-Volts (keV); and detecting and measuring X-rays that are emitted from the sample in response to the impingement of the protons and non-hydrogen ions onto the sample .
Torque sensor device for a motor vehicle for sensing a torque at a shaft of the motor vehicle , having a stator for arrangement on a first component-shaft of the shaft , wherein the stator has two annular stator elements with respective edge regions which are guided outward radially with respect to a longitudinal axis (L) of the torque sensor device and lie axially opposite one another to form an intermediate space (Z), with an annular magnet which is surrounded by the stator , for arrangement on a second component-shaft of the shaft , and with a magnetic field sensor device which is arranged in the intermediate space (Z) and has at least one magnetic field sensor for sensing a magnetic flux and at least two flux-directing elements for directing the magnetic flux from the respective stator element to the magnetic field sensor , wherein the flux-directing elements in the intermediate space (Z) are oriented in an axial direction (F a ) and are formed in a rod shape along the axial direction (F a ), wherein each flux-directing element has at least one attachment element for securing the flux-directing element in a housing element of the magnetic field sensor device , wherein the flux-directing elements are formed without bends in the axial direction (F a ), characterized in that the at least one attachment element is embodied in one piece with the respective flux-directing element , wherein the attachment element is embodied as an undercut, by which a positively locking and/or frictionally locking connection can be established between the flux-directing element and the housing element .