mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid upper arm , comprising: an upper arm body made of a metal material; and an insert injection-molded integrally with the upper arm body so that the insert is inserted into an inside of the upper arm body , the hybrid upper arm is characterized in that : the upper arm body has a weight ratio of 50% or more and 90% or less with respect to a total weight of the hybrid upper arm, the upper arm body includes an upper wall and two side walls extending downward from the upper wall, the insert is made of a plastic material and supports the upper arm body , the insert includes an upper wall and two side walls extending downward from the upper wall of the insert , the upper wall and the side walls of the insert are coupled to the upper wall and the side walls of the upper arm body respectively, the insert includes a reinforcement rib having a lattice-patterned shape which is disposed in a space surrounded by the upper wall and the side walls of the insert and supports the upper wall and the side walls of the insert , both ends of the reinforcement rib are coupled to the side walls of the insert respectively and connect the side walls of the insert to each other, a vertical length of the reinforcement rib is less than vertical lengths of the side walls of the insert , and the reinforcement rib includes: a first portion having a constant vertical length; and a second portion which is disposed between the first portion and the side walls of the insert and has a vertical length gradually increasing from the first portion toward the side walls of the insert . the upper arm body has a weight ratio of 50% or more and 90% or less with respect to a total weight of the hybrid upper arm, the upper arm body includes an upper wall and two side walls extending downward from the upper wall, the insert is made of a plastic material and supports the upper arm body , the insert includes an upper wall and two side walls extending downward from the upper wall of the insert , the upper wall and the side walls of the insert are coupled to the upper wall and the side walls of the upper arm body respectively, the insert includes a reinforcement rib having a lattice-patterned shape which is disposed in a space surrounded by the upper wall and the side walls of the insert and supports the upper wall and the side walls of the insert , both ends of the reinforcement rib are coupled to the side walls of the insert respectively and connect the side walls of the insert to each other, a vertical length of the reinforcement rib is less than vertical lengths of the side walls of the insert , and the reinforcement rib includes: a first portion having a constant vertical length; and a second portion which is disposed between the first portion and the side walls of the insert and has a vertical length gradually increasing from the first portion toward the side walls of the insert .
A coated textile which is capable of being used in particular as a cloth in an inflatable structure, which is free from halogens, comprising a textile core based on synthetic filaments, having a first face and a second face opposite to said first face, said first face being coated with a coating layer based on silicone and said second face being coated with a coating layer based on a thermoplastic polymer, said coating layers each comprising at least one flame retardant compound, which may be identical or different, in a quantity which is sufficient for the coated textile to have a gross calorific value which is greater than or equal to 18 MJ/kg.
Extraction apparatus for a household refrigeration appliance , which is embodied for storing foodstuffs on different levels, and which has a lower, first foodstuff storage unit on a first level, which is mounted such that it can be displaced in an extraction direction (z), and which has an upper, second foodstuff storage unit , which is arranged on a second level different from the first level, wherein the extraction apparatus has a coupling facility , to which the foodstuff storage units can be coupled in terms of their movements and with which they can be extracted together in the extraction direction (z) in the movement-coupled state, characterised in that the extraction apparatus has a handle element on the second foodstuff storage unit and the handle element is coupled to the coupling facility , wherein the movement-coupled state of the foodstuff storage units can be released as a function of a release movement of the handle element , and the handle element is arranged on the second foodstuff storage unit such that it can be moved relative to the second foodstuff storage unit .
A system for de-plugging an agricultural implement , the system comprising: an implement frame ; a ground-engaging tool pivotably coupled to the implement frame ; an actuator coupled between the ground-engaging tool and the implement frame , the actuator configured to move the ground-engaging tool relative to the implement frame between a first position in which the ground-engaging tool penetrates the soil and a second position in which the ground-engaging tool is lifted out of the soil ; a sensor configured to capture data indicative of plugging of the ground-engaging tool ; and a controller communicatively coupled to the sensor , the controller configured to determine when the ground-engaging tool is plugged based on the data received from the sensor , the controller further configured to control an operation of the actuator such that the ground-engaging tool is moved from the first position to the second position when it is determined that the ground-engaging tool is plugged characterized in that , after the ground-engaging tool is moved to the second position, the controller is further configured to determine when the ground-engaging tool is de-plugged based on the data received from the sensor . an implement frame ; a ground-engaging tool pivotably coupled to the implement frame ; an actuator coupled between the ground-engaging tool and the implement frame , the actuator configured to move the ground-engaging tool relative to the implement frame between a first position in which the ground-engaging tool penetrates the soil and a second position in which the ground-engaging tool is lifted out of the soil ; a sensor configured to capture data indicative of plugging of the ground-engaging tool ; and a controller communicatively coupled to the sensor , the controller configured to determine when the ground-engaging tool is plugged based on the data received from the sensor , the controller further configured to control an operation of the actuator such that the ground-engaging tool is moved from the first position to the second position when it is determined that the ground-engaging tool is plugged characterized in that , after the ground-engaging tool is moved to the second position, the controller is further configured to determine when the ground-engaging tool is de-plugged based on the data received from the sensor .
Air vent for a vehicle, comprising a housing with an inlet opening and an outlet opening , a housing wall of the housing delimiting an air duct for air flowing from the inlet opening to the outlet opening along a main flow direction (H), further comprising at least one air guide element arranged in the air duct upstream of the outlet opening , wherein the housing wall in the area of the outlet opening forms at least one projection projecting into the air duct so that the cross-sectional area of the air duct decreases in the main flow direction (H), the at least one air guide element being adjustable between two end positions and, at least in one of the end positions, being configured to direct the air flowing through the air duct from the main flow direction (H) in the direction of the at least one projection , characterized in that the at least one projection forms a first part of the housing wall , which is arranged at an angle (A, B) of 40° to 120°, preferably 60° to 100°, particularly preferably 90°, relative to a second part of the housing wall adjoining the first part upstream, and the housing wall in the area of the at least one air guide element forms at least one convexity , so that the cross-sectional area of the air duct widens in the main flow direction (H), wherein the at least one convexity is configured to support the deflection of the air flow effected by the at least one air guide element so as to contribute to direct the air flowing through the air duct in the direction of the at least one projection .
- A support device for at least one cable of a telescopic antenna , which support device includes an arm comprising at least two sections hinged together by means of a hinge , a first end of the arm being intended to be secured by a first pivot connection to a fixed support receiving a foot of the antenna and a second end of the arm being intended to be secured to a head of the antenna by a second pivot connection , so that extending the antenna unfolds the arm and retracting the antenna folds back the arm , each section of the arm comprising at least one trough intended to contain at least one cable , a means for guiding the cable or cables being located in the vicinity of the hinge so as to prevent movement of the cable or cables in a direction parallel to the axis of the hinge , at least one means for tensioning the cable or cables being secured to the second end of the arm , characterised in that the means for tensioning the cable or cables comprises at least one duct arranged in the extension of a trough and presenting two successive portions having bends the radii of which are at least equal to the minimum bend radius allowed by the cable or cables , the two portions having orientations opposite to one another, the duct thus having an S shape, a first portion of the duct being intended to orientate the cable or cables towards the head of the antenna when the arm is folded, and a second portion of the duct having an open profile allowing the cable or cables to emerge from the second portion of the duct to freely orientate towards the head of the antenna when the arm is in the folded position, the bending of the second portion of the duct furthermore allowing the cable or cables to be tensioned when the arm is in the unfolded position.
A vehicle (18; 118) having a license plate tamper detection system comprising: a first sensor (4; 104) arranged to provide monitor data corresponding to presence of a first license plate (20; 120a) on the vehicle (18; 118); and a second sensor (6; 106) arranged to provide reference data, wherein the license plate tamper detection system is arranged to compare said monitor data with said reference data and generate a tampering event if said comparison yields more than a predetermined difference between the monitor data and the reference data; wherein the license plate tamper detection system is arranged to assess whether the vehicle (18; 118) is stationary and to disable the sensors (4, 6; 104, 106) if the vehicle (18; 118) is not stationary; and wherein the first sensor (4; 104) is embedded in or otherwise attached to the first license plate (20; 120a). a first sensor (4; 104) arranged to provide monitor data corresponding to presence of a first license plate (20; 120a) on the vehicle (18; 118); and a second sensor (6; 106) arranged to provide reference data, wherein the license plate tamper detection system is arranged to compare said monitor data with said reference data and generate a tampering event if said comparison yields more than a predetermined difference between the monitor data and the reference data; wherein the license plate tamper detection system is arranged to assess whether the vehicle (18; 118) is stationary and to disable the sensors (4, 6; 104, 106) if the vehicle (18; 118) is not stationary; and wherein the first sensor (4; 104) is embedded in or otherwise attached to the first license plate (20; 120a).
Method for setting light conditions of a vehicle and for providing illumination which compensates for light fluctuations in an interior of the vehicle , comprising: - specifying an illumination target value (BS) of a control device in the interior ; - emitting light through at least one light source arranged in the interior in dependence on the illumination target value (BS) specified by the control device ; - capturing a current illumination value (BW) in the interior using a capture device ; - setting the current illumination value (BW) to the specified illumination target value (BS) by controlling the at least one light source if a deviation of the current illumination value (BS) from the specified illumination target value (BS) is detected; - capturing an ambient lighting value in a vicinity of the vehicle using a further capture device , wherein the ambient lighting value comprises a light colour (K) of the ambient light, - setting the current illumination value (BW) by controlling the at least one light source in such a way that a light colour (K) of the emitted light in the interior of the vehicle is adapted to a light colour (K) detected in the vicinity of the vehicle , characterized in that - the vehicle further comprises a headlamp device , wherein the control device is used to set the headlamp light emitted by the headlamp device in dependence on the current illumination value (BW) in such a way that light fluctuations in the interior of the vehicle are compensated for and a comfort level for a driver or passenger of the vehicle during use of the vehicle is increased. - specifying an illumination target value (BS) of a control device in the interior ; - emitting light through at least one light source arranged in the interior in dependence on the illumination target value (BS) specified by the control device ; - capturing a current illumination value (BW) in the interior using a capture device ; - setting the current illumination value (BW) to the specified illumination target value (BS) by controlling the at least one light source if a deviation of the current illumination value (BS) from the specified illumination target value (BS) is detected; - capturing an ambient lighting value in a vicinity of the vehicle using a further capture device , wherein the ambient lighting value comprises a light colour (K) of the ambient light, - setting the current illumination value (BW) by controlling the at least one light source in such a way that a light colour (K) of the emitted light in the interior of the vehicle is adapted to a light colour (K) detected in the vicinity of the vehicle , characterized in that - the vehicle further comprises a headlamp device , wherein the control device is used to set the headlamp light emitted by the headlamp device in dependence on the current illumination value (BW) in such a way that light fluctuations in the interior of the vehicle are compensated for and a comfort level for a driver or passenger of the vehicle during use of the vehicle is increased.
Metal injection nozzle with a nozzle pipe that forms a melt channel , and with a nozzle head that has at least one nozzle opening for the melt outlet, the nozzle head being attached to the nozzle pipe in a manner exchangeable at least in sections and having a base part , in which a passage channel connected to the melt channel is formed, and having a distributor element arranged downstream of the base part , a multiplicity of branch channels , each of which ends in a nozzle opening , being formed in the distributor element and the distributor element being held in an exchangeable manner on the base part , characterized in that the nozzle pipe can be heated by means of at least one nozzle pipe heating unit , in that at least one heating element is integrated into the base part and in that at least one cooling element is arranged in the distributor element .
A surgical apparatus for cutting a tibia of a patient for the implantation of an ankle prosthesis, the surgical apparatus comprising: - a support frame having an anterior portion configured to bear on an upper surface of a talus of the patient, and a rear portion configured to be secured to the tibia of the patient; - a cutting guide insert mounted on the support frame and configured to guide a cutting blade for cutting of a lower end part of the tibia, the cutting guide insert being movably mounted on the rear portion of the support frame along a displacement direction (D) so as to adjust a tibial cutting height, characterized in that surgical apparatus further comprises: - graduations provided on the support frame or on the cutting guide insert , each graduation corresponding to a value of the tibial cutting height; and - a reading mark associated with the graduations and provided on the cutting guide insert or on support frame . - a support frame having an anterior portion configured to bear on an upper surface of a talus of the patient, and a rear portion configured to be secured to the tibia of the patient; - a cutting guide insert mounted on the support frame and configured to guide a cutting blade for cutting of a lower end part of the tibia, the cutting guide insert being movably mounted on the rear portion of the support frame along a displacement direction (D) so as to adjust a tibial cutting height, characterized in that surgical apparatus further comprises: - graduations provided on the support frame or on the cutting guide insert , each graduation corresponding to a value of the tibial cutting height; and - a reading mark associated with the graduations and provided on the cutting guide insert or on support frame .
Method for calculating the positions of particular points of synchronization sleeves of a double-clutch gearbox driven by an engine of a vehicle, this box comprising two half-boxes each controlled by a clutch , characterized in that , in a preparation phase for each gear ratio engaged of a half-gearbox, the method applies a predetermined engine torque setpoint curve and engages, during this setpoint, gears of the another half-box, by measuring and memorizing the positions of particular points of the synchronization sleeves during these engagements, and in that subsequently, during the driving phases of the vehicle, the method calculates for the particular points predicted positions by comparison with the stored positions of the particular points during similar driving conditions.
A passenger conveyer system , comprising: an elevator car ; a counterweight ; a suspension member ; a sheave configured to rotate on a bearing , wherein the sheave is a first sheave configured to rotate on a first bearing and mounted adjacent the elevator car ; a second sheave configured to rotate on a second bearing , wherein the second sheave is mounted adjacent the counterweight , and wherein the suspension member is wrapped around at least a portion of the first and second sheaves ; a sensor mounted adjacent an end of the suspension member , wherein the sensor is a first sensor mounted adjacent a first end of the suspension member ; a second sensor mounted adjacent a second end of the suspension member opposite the first end ; and a controller configured to determine a condition of the first bearing and the second bearing based on an output of the first sensor and the second sensor respectively. an elevator car ; a counterweight ; a suspension member ; a sheave configured to rotate on a bearing , wherein the sheave is a first sheave configured to rotate on a first bearing and mounted adjacent the elevator car ; a second sheave configured to rotate on a second bearing , wherein the second sheave is mounted adjacent the counterweight , and wherein the suspension member is wrapped around at least a portion of the first and second sheaves ; a sensor mounted adjacent an end of the suspension member , wherein the sensor is a first sensor mounted adjacent a first end of the suspension member ; a second sensor mounted adjacent a second end of the suspension member opposite the first end ; and a controller configured to determine a condition of the first bearing and the second bearing based on an output of the first sensor and the second sensor respectively.
A device comprising a graphene layer located on a flexible or stretchable substrate , the graphene layer comprising two graphene electrodes and a porous graphene layer , comprising a multiplicity of pores, between the electrodes , the porous graphene layer comprising a multiplicity of graphene nanoribbons having a width of between 0.1nm and 20nm resulting in the porous graphene layer being a semiconductor, and wherein the porous graphene layer covers an area on the substrate between 1μm 2 and 10 cm 2 .
A chromatographic kit comprising: a label substance modified with a first binding substance for a test substance; a nonionic surfactant; a Good's buffer, wherein the Good's buffer is N-[tris(hydroxymethyl)methyl]glycine also known as Tricine, 2-hydroxy-3-[4-(2-hydroxyethyl)-1-piperazinyl]propanesulfonic acid monohydrate also known as HEPPSO, N-tris(hydroxymethyl)methyl-3-aminopropanesulfonic acid also known as TAPS, or N-cyclohexyl-2-aminoethanesulfonic acid also known as CHES; casein; a porous carrier including a second binding substance for the test substance or a binding substance for the first binding substance; a compound containing silver; and a reducing agent reducing silver ions. a label substance modified with a first binding substance for a test substance; a nonionic surfactant; a Good's buffer, wherein the Good's buffer is N-[tris(hydroxymethyl)methyl]glycine also known as Tricine, 2-hydroxy-3-[4-(2-hydroxyethyl)-1-piperazinyl]propanesulfonic acid monohydrate also known as HEPPSO, N-tris(hydroxymethyl)methyl-3-aminopropanesulfonic acid also known as TAPS, or N-cyclohexyl-2-aminoethanesulfonic acid also known as CHES; casein; a porous carrier including a second binding substance for the test substance or a binding substance for the first binding substance; a compound containing silver; and a reducing agent reducing silver ions.