mhurhangee/patent-ind-claim-en huggingface dataset:
A multiple-pole electrical plug connector arrangement consisting of two plug connector sections which can be connected with each other, each of which has a housing consisting of at least two housing sections which are connected together parallel to the planned direction of insertion, where the housing sections each have formed parallel grooves on the side surfaces which face each other when the sections are connected together and which form parallel retaining channels to retain plug contact elements after the housing sections have been connected together where the plug contact elements have formed, springy elements which engage in projections in the retaining channels where segments of at least one housing section fix the position of the plug contact elements within the retaining channels , and where, to create a positive fixing of the plug contact elements , the segments are arranged on springy tongues which are formed on the edge of the retaining channels in one section of the housing characterized by the fact that the springy tongues have formed locking pegs which can be swung outwards over the external surface of the associated housing section the locking pegs of the springy tongues swung outwards over the external surface of the associated housing section block a complete attachment of attachable parts of the plug connector (100, 200; 300, 400) and that, following the complete attachment of attachable parts of the plug connector (100, 200; 300, 400) the swinging outwards of springy tongues over the external surface of the associated housing section is blocked by a housing section of the other part of the plug connector
Method for producing a light source arrangement for a motor vehicle lighting device having at least one light-emitting diode for generating light and a resistor element for pre-setting optical and/or electrical properties of the light-emitting diode to a control unit (31; 107) for controlling and/or regulating the light source arrangement , characterised by the following steps: - providing a heat sink , - providing at least one top mount light emitting diode in the form of a submount comprising one or more LED chips for emitting light of a first wavelength and electrical connections on its upper side and a full area heat spreader element on its lower side, - fixing the at least one top mount light emitting diode with its heat spreading element directly on the heat sink , - providing a circuit carrier , - arranging the resistor element on the circuit carrier , - establishing an electrical connection between the circuit carrier and the at least one top mount light emitting diode , - detecting the properties of the light-emitting diode and - adjusting a resistance value (R) of the resistor element as a function of the detected properties of the light-emitting diode . - providing a heat sink , - providing at least one top mount light emitting diode in the form of a submount comprising one or more LED chips for emitting light of a first wavelength and electrical connections on its upper side and a full area heat spreader element on its lower side, - fixing the at least one top mount light emitting diode with its heat spreading element directly on the heat sink , - providing a circuit carrier , - arranging the resistor element on the circuit carrier , - establishing an electrical connection between the circuit carrier and the at least one top mount light emitting diode , - detecting the properties of the light-emitting diode and - adjusting a resistance value (R) of the resistor element as a function of the detected properties of the light-emitting diode .
A mobile robot configured to navigate an operating environment, comprising: a body having a top surface ; a drive ; a recessed structure beneath the top surface near a geometric center of the body ; a controller circuit in communication with the drive , wherein the controller circuit directs the drive to navigate the mobile robot through an environment using camera-based navigation system ; and a camera including optics defining a camera field of view and a camera optical axis, wherein: the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body , the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot . a body having a top surface ; a drive ; a recessed structure beneath the top surface near a geometric center of the body ; a controller circuit in communication with the drive , wherein the controller circuit directs the drive to navigate the mobile robot through an environment using camera-based navigation system ; and a camera including optics defining a camera field of view and a camera optical axis, wherein: the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body , the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot . the camera is positioned within the recessed structure located at a distance of at most 15.24 cm [6 inches] from a floor surface and is tilted so that the camera optical axis is aligned at an acute angle of 30-40 degrees above a horizontal plane in line with the top surface and is aimed in a forward drive direction of the body , the field of view of the camera spans a frustum of 45-65 degrees in the vertical direction, and the camera is configured to capture images of the operating environment of the mobile robot .
An automated vehicle comprising: a motor vehicle , and an automated vehicle control system configured to perform automated operation of the vehicle, characterized in that the automated vehicle control system - determines at a current vehicle stop position a subsequent vehicle stop position, - determines a transition distance between the current vehicle stop position and the subsequent vehicle stop position, - determines a desired speed profile between the current vehicle stop position and the subsequent vehicle stop position based on the determined transition distance and an economy profile for the determined transition distance , and - executes said desired speed profile without user interaction between the current vehicle stop position and the subsequent vehicle stop position. a motor vehicle , and an automated vehicle control system configured to perform automated operation of the vehicle, characterized in that the automated vehicle control system - determines at a current vehicle stop position a subsequent vehicle stop position, - determines a transition distance between the current vehicle stop position and the subsequent vehicle stop position, - determines a desired speed profile between the current vehicle stop position and the subsequent vehicle stop position based on the determined transition distance and an economy profile for the determined transition distance , and - executes said desired speed profile without user interaction between the current vehicle stop position and the subsequent vehicle stop position. - determines at a current vehicle stop position a subsequent vehicle stop position, - determines a transition distance between the current vehicle stop position and the subsequent vehicle stop position, - determines a desired speed profile between the current vehicle stop position and the subsequent vehicle stop position based on the determined transition distance and an economy profile for the determined transition distance , and - executes said desired speed profile without user interaction between the current vehicle stop position and the subsequent vehicle stop position.
A method of sensing the attractive force between a magnetic structure and a ferromagnetic target by measuring an opposing residual magnetic field , the method including the following steps: i) placing the magnetic structure onto the ferromagnetic target of a given thickness; ii) activating a magnetic field of the magnetic structure; iii) measuring the breakaway force required to detach the magnetic structure from the given thickness of the ferromagnetic target; iv) providing a magnetic field sensor opposite the ferromagnetic target, to measure the magnetic field of the magnetic structure; v) measuring the magnetic field of the magnetic structure with the magnetic structure in contact with the ferromagnetic target of a given thickness; vi) changing the thickness of the ferromagnetic target from the given thickness to a changed thickness and measuring the breakaway force required to detach the magnetic structure from the ferromagnetic target with the changed thickness; vii) measuring the magnetic field of the magnetic structure with the magnetic structure in contact with the ferromagnetic target of a changed thickness; and viii) correlating the measured magnetic fields with the breakaway force for a thickness and a changed thickness of a ferromagnetic target. i) placing the magnetic structure onto the ferromagnetic target of a given thickness; ii) activating a magnetic field of the magnetic structure; iii) measuring the breakaway force required to detach the magnetic structure from the given thickness of the ferromagnetic target; iv) providing a magnetic field sensor opposite the ferromagnetic target, to measure the magnetic field of the magnetic structure; v) measuring the magnetic field of the magnetic structure with the magnetic structure in contact with the ferromagnetic target of a given thickness; vi) changing the thickness of the ferromagnetic target from the given thickness to a changed thickness and measuring the breakaway force required to detach the magnetic structure from the ferromagnetic target with the changed thickness; vii) measuring the magnetic field of the magnetic structure with the magnetic structure in contact with the ferromagnetic target of a changed thickness; and viii) correlating the measured magnetic fields with the breakaway force for a thickness and a changed thickness of a ferromagnetic target.
A display device comprising: a substrate comprising a first display area (DA) and a second display area (SA), the first display area (DA) comprising a first pixel (Pm), and the second display area (SA) comprising a second pixel (Pa) and a transmissive area (TA); a first pixel electrode and a first emission layer in the first pixel (Pm); a second pixel electrode and a second emission layer in the second pixel (Pa); an opposite electrode arranged as one body in the first display area (DA) and the second display area (SA); and a top layer arranged directly on the opposite electrode , wherein the opposite electrode and the top layer each have an opening area corresponding to the transmissive area (TA), and wherein a convex portion is around the transmissive area (TA), the convex portion being a portion of the top layer and being convex in a top surface direction of the substrate , so that the convex portion has a thickness greater than a neighboring thickness of the surroundings thereof. a substrate comprising a first display area (DA) and a second display area (SA), the first display area (DA) comprising a first pixel (Pm), and the second display area (SA) comprising a second pixel (Pa) and a transmissive area (TA); a first pixel electrode and a first emission layer in the first pixel (Pm); a second pixel electrode and a second emission layer in the second pixel (Pa); an opposite electrode arranged as one body in the first display area (DA) and the second display area (SA); and a top layer arranged directly on the opposite electrode , wherein the opposite electrode and the top layer each have an opening area corresponding to the transmissive area (TA), and wherein a convex portion is around the transmissive area (TA), the convex portion being a portion of the top layer and being convex in a top surface direction of the substrate , so that the convex portion has a thickness greater than a neighboring thickness of the surroundings thereof.
A drivetrain assembly for a wind turbine, including: - a first planetary wheel stage and a second planetary wheel stage , characterized by a spur wheel stage for coupling with a generator, wherein - a first module of the drivetrain assembly includes the first planetary wheel stage in a first housing , - a second module of the drivetrain assembly includes the second planetary wheel stage and the spur wheel stage in a second housing , and - the first housing and the second housing each are formed as housings independent from one another. - a first planetary wheel stage and a second planetary wheel stage , characterized by a spur wheel stage for coupling with a generator, wherein - a first module of the drivetrain assembly includes the first planetary wheel stage in a first housing , - a second module of the drivetrain assembly includes the second planetary wheel stage and the spur wheel stage in a second housing , and - the first housing and the second housing each are formed as housings independent from one another.
A dispensing device for non-packaged goods, in particular bakery goods such as bread, rolls or the like, with at least one support framework and with at least one drawer-like insert which is inserted into the support framework in the assembled state, wherein the drawer-like insert defines a goods-accommodating space in which at least one trough-like and/or board-like receptacle for the goods is located, and wherein the drawer-like insert has at least one front opening via which the goods-accommodating space and the trough-like and/or board-like receptacle are accessible, and wherein the drawer-like insert has at least one transparent door and at least one door guide which, relative to the assembled and set-up state of the dispensing device , is arranged in the upper region of the opening , wherein the door has at least two guide pins and wherein the door guide further has a first guide cutout and a second guide cutout in which the guide pins are guided such that the door can be pushed at least partially into the goods-accommodating space , wherein the first guide cutout runs substantially vertically relative to the assembled and set-up state of the dispensing device and wherein the second guide cutout , relative to the assembled and set-up state of the dispensing device , runs substantially horizontally and substantially straight and wherein the door is so greatly curved in its upper region relative to the assembled and set-up state of the dispensing device that the door in the pushed-in state does not protrude beyond the upper edge of the drawer-like insert , characterised in that the second guide cutout , relative to the assembled and set-up state of the dispensing device , in the front region in its front end point is closer to the upper edge of the drawer-like insert than in its end facing the rear region of the dispensing device in the rear end point .
A handover method, comprising: sending, by a first network device , a first configuration message to a communications device , wherein a second Packet Data Convergence Protocol, PDCP, entity and a first PDCP entity are established for the communications device , the second PDCP entity comprises a second ciphering/deciphering function and a second data packet numbering/reordering function, and the first PDCP entity comprises a first ciphering/deciphering function and the first data packet numbering/reordering function, wherein the first configuration message is used to instruct the communications device to configure the second ciphering/deciphering function associated with a second network device and to share a first data packet numbering/reordering function with the second PDCP entity, and configuring, by the first network device, the communications device with the first data packet numbering/reordering function and the first ciphering/deciphering function associated with the first network device ; and receiving, by the first network device , a first configuration complete message sent by the communications device . sending, by a first network device , a first configuration message to a communications device , wherein a second Packet Data Convergence Protocol, PDCP, entity and a first PDCP entity are established for the communications device , the second PDCP entity comprises a second ciphering/deciphering function and a second data packet numbering/reordering function, and the first PDCP entity comprises a first ciphering/deciphering function and the first data packet numbering/reordering function, wherein the first configuration message is used to instruct the communications device to configure the second ciphering/deciphering function associated with a second network device and to share a first data packet numbering/reordering function with the second PDCP entity, and configuring, by the first network device, the communications device with the first data packet numbering/reordering function and the first ciphering/deciphering function associated with the first network device ; and receiving, by the first network device , a first configuration complete message sent by the communications device .
A method of characterizing a mutant target DNA polynucleotide comprising: (i) providing a mixture of DNA polynucleotides comprising at least a wildtype (WT) version and a mutant version of said DNA polynucleotide; (ii) providing a pool of amplified and concatenated DNA polynucleotides by amplifying said mixture of DNA polynucleotides of step (i) by rolling circle amplification (RCA); (iii) identifying and cleaving the WT version of the target DNA polynucleotide by using a synthetic single guide RNA (sgRNA) specific for said WT version and an sgRNA-guided nucleic acid-binding endonuclease, preferably Cas9; (iv) size selecting uncut mutant target DNA polynucleotides; and (v) characterizing the uncut mutant target DNA polynucleotides. (i) providing a mixture of DNA polynucleotides comprising at least a wildtype (WT) version and a mutant version of said DNA polynucleotide; (ii) providing a pool of amplified and concatenated DNA polynucleotides by amplifying said mixture of DNA polynucleotides of step (i) by rolling circle amplification (RCA); (iii) identifying and cleaving the WT version of the target DNA polynucleotide by using a synthetic single guide RNA (sgRNA) specific for said WT version and an sgRNA-guided nucleic acid-binding endonuclease, preferably Cas9; (iv) size selecting uncut mutant target DNA polynucleotides; and (v) characterizing the uncut mutant target DNA polynucleotides.
Power generator for feeding energy into an electrical power supply network (N), comprising: a generator designed as a synchronous reluctance generator or as a squirrel-cage generator, which draws a first reactive power (Q 1 ) from the power supply network (N) in order to build up and maintain a rotor magnetic field; an internal combustion engine having at least one cylinder (Z1 to Z6), and by means of which the generator can be driven to feed electrical energy with an active power (P) into the power supply network (N); characterised by a compensation system associated with the generator , the compensation system comprising three-phase capacitors connected in parallel with the generator and being designed to provide the power supply network (N) with a second reactive power (Q2) which eliminates the provision of the first reactive power (Q 1 ) from the power supply network (N) when required; a control device which, for dynamic network support, shuts down at least one cylinder (Z1 to Z6) of the internal combustion engine when a fault of the power supply network (N) is passed through; the control device having a voltage monitor which, in the event of a fault in the power supply network (N), outputs a control signal (S) on the basis of which the control device controls the shutdown of the at least one cylinder (Z1 to Z6), and at least one throttle valve for throttling the output of the internal combustion engine , which is designed in such a way that the position of the throttle valve remains virtually unchanged when the fault of the power supply network (N) is passed. a generator designed as a synchronous reluctance generator or as a squirrel-cage generator, which draws a first reactive power (Q 1 ) from the power supply network (N) in order to build up and maintain a rotor magnetic field; an internal combustion engine having at least one cylinder (Z1 to Z6), and by means of which the generator can be driven to feed electrical energy with an active power (P) into the power supply network (N); characterised by a compensation system associated with the generator , the compensation system comprising three-phase capacitors connected in parallel with the generator and being designed to provide the power supply network (N) with a second reactive power (Q2) which eliminates the provision of the first reactive power (Q 1 ) from the power supply network (N) when required; a control device which, for dynamic network support, shuts down at least one cylinder (Z1 to Z6) of the internal combustion engine when a fault of the power supply network (N) is passed through; the control device having a voltage monitor which, in the event of a fault in the power supply network (N), outputs a control signal (S) on the basis of which the control device controls the shutdown of the at least one cylinder (Z1 to Z6), and at least one throttle valve for throttling the output of the internal combustion engine , which is designed in such a way that the position of the throttle valve remains virtually unchanged when the fault of the power supply network (N) is passed.
A multilayer container comprising: a polyester layer containing a polyester resin (X); and a polyamide layer containing a polyamide resin (Y) and a yellowing inhibitor (A), wherein a content of the polyamide resin (Y) is from 0.05 to 7.0 mass% relative to a total amount of all polyamide layers and all polyester layers, the yellowing inhibitor (A) is a dye, the content of the yellowing inhibitor (A) is from 400 to 800 ppm relative to the polyamide layer, and an L* value of the multilayer container is 87.5 or greater, and being measured in accordance with JIS K 7105. a polyester layer containing a polyester resin (X); and a polyamide layer containing a polyamide resin (Y) and a yellowing inhibitor (A), wherein a content of the polyamide resin (Y) is from 0.05 to 7.0 mass% relative to a total amount of all polyamide layers and all polyester layers, the yellowing inhibitor (A) is a dye, the content of the yellowing inhibitor (A) is from 400 to 800 ppm relative to the polyamide layer, and an L* value of the multilayer container is 87.5 or greater, and being measured in accordance with JIS K 7105.