mhurhangee/patent-ind-claim-en huggingface dataset:
Automotive luminous device comprising - a leveller comprising a leveller motor and a leveller shaft configured to be moved by the leveller motor , the leveller shaft comprising a shaft connection - a transmission element with a base bearing two ball socket connections, a first ball socket connection and a second ball socket connection , wherein the first ball socket connection is adapted to match with the shaft connection of the leveller shaft and has a cylindrical shape, wherein the first ball socket connection has a first attachment direction (d1) and the second ball socket connection has a second attachment direction (d2) - a first lighting module rigidly attached to the transmission element - a second lighting module comprising an adjustment connection configured to match with the second ball socket connection of the transmission element , - characterized in that the transmission element consists in a base plate extending transversally to the first and second attachment directions (d1, d2), each side of the plate bearing one of the first and second ball socket connections . - a leveller comprising a leveller motor and a leveller shaft configured to be moved by the leveller motor , the leveller shaft comprising a shaft connection - a transmission element with a base bearing two ball socket connections, a first ball socket connection and a second ball socket connection , wherein the first ball socket connection is adapted to match with the shaft connection of the leveller shaft and has a cylindrical shape, wherein the first ball socket connection has a first attachment direction (d1) and the second ball socket connection has a second attachment direction (d2) - a first lighting module rigidly attached to the transmission element - a second lighting module comprising an adjustment connection configured to match with the second ball socket connection of the transmission element , - characterized in that the transmission element consists in a base plate extending transversally to the first and second attachment directions (d1, d2), each side of the plate bearing one of the first and second ball socket connections .
A signal transmission method of an Evolved Node B, ENB, , the ENB using a plurality of two or more antenna ports and comprising at least two transmission paths (PathA, PathB), each path corresponding to an antenna port of the plurality of antenna ports, the method comprising: identifying , by an ENB controller, a start point of a subframe; identifying , by the ENB controller, whether a physical downlink shared channel, PDSCH, is transmitted in a corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, based on the start point of the subframe; determining , by the ENB controller, a connection state for each transmission path (PathA, PathB) based on whether the PDSCH is transmitted in the corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, the connection state comprising an on state and an off state, wherein the on state is determined for each transmission path if the PDSCH is transmitted on at least one of the at least two transmission paths so as to control the ENB to operate in a Multiple-Input Multiple-Output, MIMO, mode, and if the PDSCH is not transmitted in the at least two transmission paths, the on state is determined for one of the at least two transmission paths while the off state is determined for the remaining of the at least two transmission paths, so as to control the ENB to operate in a Single-Input Multiple-Output, SIMO, mode; and transmitting a signal based on the determined connection state for each transmission path (PathA, PathB). identifying , by an ENB controller, a start point of a subframe; identifying , by the ENB controller, whether a physical downlink shared channel, PDSCH, is transmitted in a corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, based on the start point of the subframe; determining , by the ENB controller, a connection state for each transmission path (PathA, PathB) based on whether the PDSCH is transmitted in the corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, the connection state comprising an on state and an off state, wherein the on state is determined for each transmission path if the PDSCH is transmitted on at least one of the at least two transmission paths so as to control the ENB to operate in a Multiple-Input Multiple-Output, MIMO, mode, and if the PDSCH is not transmitted in the at least two transmission paths, the on state is determined for one of the at least two transmission paths while the off state is determined for the remaining of the at least two transmission paths, so as to control the ENB to operate in a Single-Input Multiple-Output, SIMO, mode; and transmitting a signal based on the determined connection state for each transmission path (PathA, PathB).
A method comprising: producing a base plate , wherein producing the base plate comprises forming a layer of a metallic material; and forming at least one first area in the layer of metallic material, wherein forming the at least one first area comprises locally inducing stress into the layer of metallic material such that a local stress in the at least one first area differs from a local stress of those areas of the metallic layer surrounding the at least one first area, wherein locally increasing the stress in the metallic layer comprises increasing a yield strength in the at least one first area as compared to surrounding areas of the metallic layer, characterized in that a yield strength of the areas surrounding the at least one first area is between 100MPa and 300MPa and a yield strength of the at least one first area is increased by between 5% and 100% of the yield strength of the areas surrounding the at least one first area. producing a base plate , wherein producing the base plate comprises forming a layer of a metallic material; and forming at least one first area in the layer of metallic material, wherein forming the at least one first area comprises locally inducing stress into the layer of metallic material such that a local stress in the at least one first area differs from a local stress of those areas of the metallic layer surrounding the at least one first area, wherein locally increasing the stress in the metallic layer comprises increasing a yield strength in the at least one first area as compared to surrounding areas of the metallic layer, characterized in that a yield strength of the areas surrounding the at least one first area is between 100MPa and 300MPa and a yield strength of the at least one first area is increased by between 5% and 100% of the yield strength of the areas surrounding the at least one first area.
Connection system for connecting a pipe to a main pipe , a manhole or the like at a transverse opening , wherein the connection system is connectable to the main pipe or the manhole for this purpose, comprising an at least partially soft, hollow plug-like installation insert , the outer side of which is adapted to the transverse opening and the inner side of which comprises a latching region , wherein the installation insert comprises an widened end portion having at least one bent tab partially insertable, by compressing with the tab forward, through the transverse opening of the main pipe or manhole into the latter, and wherein, in a connection state in which the connection system is connected to the main pipe or manhole, an outer abutment surface of the installation insert at least partially contacts a main pipe inner surface adjacent to and surrounding the transverse opening , and comprising a relatively harder connection piece which comprises an engagement end , a cylindrical central part having latching projections and a connection end , wherein at least one abutment element is arranged on the second end portion , opposite the widened end portion , of the installation insert , and at least one fastening element is arranged at the end , opposite the widened end portion , of the abutment surface of the installation insert , wherein the abutment element projects outwards from the second end portion and is curved towards the widened end portion .
A process for producing a low-odor polyether polyol, characterized by comprising the following steps: an initial polymerization reaction step, comprising: adding an initiator and an alkaline catalyst into a reaction container, and then inputting an epoxy olefin into the reaction container for a polymerization reaction to obtain a mixed material; a circulation distribution polymerization step, comprising: taking the mixed material for outputting, splitting and spraying into the reaction container at a high speed, followed by circulating the above operations while inputting the epoxy olefin and maintaining a rotation speed of 90-105 r/min for stirring the mixed material that has been sprayed into the reaction container, continuing to proceed with the polymerization reaction, and curing to obtain a crude polyether polyol; and a refining step, comprising: taking the crude polyether polyol for a neutralization or dilution treatment to obtain a mixed solution of the crude polyether polyol, then aggregating a mixed solution stream by means of a hydrophilic medium, settling and separating to obtain the low-odor polyether polyol; wherein in the circulation distribution polymerization step, a ratio of a flow rate of the mixed material sprayed into the reaction container to a volume of the reaction container is 2-5 tons/hour: 1 cubic meter. an initial polymerization reaction step, comprising: adding an initiator and an alkaline catalyst into a reaction container, and then inputting an epoxy olefin into the reaction container for a polymerization reaction to obtain a mixed material; a circulation distribution polymerization step, comprising: taking the mixed material for outputting, splitting and spraying into the reaction container at a high speed, followed by circulating the above operations while inputting the epoxy olefin and maintaining a rotation speed of 90-105 r/min for stirring the mixed material that has been sprayed into the reaction container, continuing to proceed with the polymerization reaction, and curing to obtain a crude polyether polyol; and a refining step, comprising: taking the crude polyether polyol for a neutralization or dilution treatment to obtain a mixed solution of the crude polyether polyol, then aggregating a mixed solution stream by means of a hydrophilic medium, settling and separating to obtain the low-odor polyether polyol; wherein in the circulation distribution polymerization step, a ratio of a flow rate of the mixed material sprayed into the reaction container to a volume of the reaction container is 2-5 tons/hour: 1 cubic meter.
Vehicle seat (1; 100), in particular a motor vehicle seat, with a) a seat part , b) a backrest , c) a kinematics system (10; 110) for transferring the vehicle seat (1; 100) from a use position, suitable for passenger transport, into an entry position and back, d) a drive apparatus (30; 130) for driving the kinematics system (10; 110), and e) a coupling apparatus (50; 150) for coupling the drive apparatus (30; 130) to the kinematics system (10; 110), the coupling apparatus (50; 150) having a pawl (62; 162) and a counter-element, in particular a pin (66; 166), it being possible for the pawl (62; 162) and the counter-element to be locked to one another in order to couple the drive apparatus (30; 130) to the kinematics system (10; 110), and it being possible for the pawl (62; 162) to be released from the counter-element by way of an actuation of the coupling apparatus (50; 150), as a result of which the drive apparatus (30; 130) can be decoupled from the kinematics system (10; 110), characterized in that the pawl (62; 162) is configured as a bracing pawl, it being possible for the pawl (62; 162) and the counter-element to be locked to one another beyond the self-locking action. a) a seat part , b) a backrest , c) a kinematics system (10; 110) for transferring the vehicle seat (1; 100) from a use position, suitable for passenger transport, into an entry position and back, d) a drive apparatus (30; 130) for driving the kinematics system (10; 110), and e) a coupling apparatus (50; 150) for coupling the drive apparatus (30; 130) to the kinematics system (10; 110), the coupling apparatus (50; 150) having a pawl (62; 162) and a counter-element, in particular a pin (66; 166), it being possible for the pawl (62; 162) and the counter-element to be locked to one another in order to couple the drive apparatus (30; 130) to the kinematics system (10; 110), and it being possible for the pawl (62; 162) to be released from the counter-element by way of an actuation of the coupling apparatus (50; 150), as a result of which the drive apparatus (30; 130) can be decoupled from the kinematics system (10; 110), characterized in that the pawl (62; 162) is configured as a bracing pawl, it being possible for the pawl (62; 162) and the counter-element to be locked to one another beyond the self-locking action.
Large manipulator with a foldable mast arm , which has a turntable rotatable about a vertical axis and a plurality of mast segments , wherein the mast segments are pivotable to a limited extent on articulated joints about horizontal articulation axes in each case relative to an adjacent mast segment or the turntable by means of a drive unit , with at least one inertial sensor for measuring the inclination and/or the acceleration of at least one mast segment , characterised by at least one angle sensor , which is associated with one of the articulated joints and detects the angular position of this articulated joint , wherein at least one inertial sensor is arranged on the last mast segment , in particular on the mast tip and detects the acceleration of the last mast segment , wherein a position controller for controlling the height of the mast tip based on the measuring signals of the at least one inertial sensor is provided, wherein the position controller is adapted to calculate the height of the mast tip from the measured inclinations of the articulated joints in combination with the acceleration detected by means of the inertial sensor arranged on the last mast segment , in particular on the mast tip , wherein a twofold time integration of the portion of the measured acceleration in a vertical direction takes place.
A connecting member for use in building assembly comprising: a substantially rigid plate having one or more elongated slots formed therein, wherein at least one of the one or more elongated slots comprises a first edge and a second edge along a longest dimension of a respective one of the one or more slots ; and a bushing coupled to the plate at an initial position within each of the one or more slots but movable relative to the plate within a respective one of the one or more slots upon application of a force exceeding a predetermined threshold value; wherein the bushing has a width that is substantially similar to a width between the first edge and the second edge of the respective one of the one or more slots such that the bushing is coupled to the plate by a friction fit; and wherein the predetermined threshold value comprises a force magnitude required to overcome frictional engagement of the bushing with the plate . a substantially rigid plate having one or more elongated slots formed therein, wherein at least one of the one or more elongated slots comprises a first edge and a second edge along a longest dimension of a respective one of the one or more slots ; and a bushing coupled to the plate at an initial position within each of the one or more slots but movable relative to the plate within a respective one of the one or more slots upon application of a force exceeding a predetermined threshold value; wherein the bushing has a width that is substantially similar to a width between the first edge and the second edge of the respective one of the one or more slots such that the bushing is coupled to the plate by a friction fit; and wherein the predetermined threshold value comprises a force magnitude required to overcome frictional engagement of the bushing with the plate .
Machine tool , in particular a panel saw, having a safety system and a tool , a clamping device arranged moveably on a frame of the machine tool for the tool , wherein the clamping device is moveable by a motion device from a working position in which the tool can be used for working and entails a risk of injury to a user by the tool into a safety position in which there is substantially no risk of injury to the user by the tool , wherein the motion device has at least two equally or oppositely magnetized and/or magnetizable magnetic means , characterized in that of the magnetic means at least a first magnetic means is connected with the tool and at least a second magnetic means is connected with the frame or arranged thereon so that the movement of the tool by the motion device out of the working position into the safety position can be triggered and/or at least partially implemented by means of a magnetic force acting between the at least two magnetic means for the movement of the tool .
A semiconductor switch element , comprising a first vertical transistor device (1.1) formed in a substrate , having a source region (2.1) formed on a first side (8.1) of the substrate and a drain region (4.1) formed on a second side (8.2) of the substrate , vertically opposite to the first side (8.1), a second vertical transistor device (1.2) formed laterally aside the first vertical transistor device (1.1) in the same substrate , having a source region (2.2) formed on the first side (8.1) of the substrate and a drain region (4.2) formed on the second side (8.2) of the substrate , a conductive element arranged on the second side (8.2) of the substrate , electrically connecting the drain regions (4.1, 4.2) of the vertical transistor devices (1.1, 1.2), wherein a trench extending vertically into the substrate is formed on the second side (8.2) of the substrate , and wherein at least a part (9.1) of the conductive element is arranged in the trench , wherein a conductive material, of which the conductive element is formed, fills only a portion (11.1) of the trench , characterized in that another portion (11.2) of the trench is filled with a polymeric material , wherein the polymeric material covers the second side (8.2) of the substrate only partly. a first vertical transistor device (1.1) formed in a substrate , having a source region (2.1) formed on a first side (8.1) of the substrate and a drain region (4.1) formed on a second side (8.2) of the substrate , vertically opposite to the first side (8.1), a source region (2.1) formed on a first side (8.1) of the substrate and a drain region (4.1) formed on a second side (8.2) of the substrate , vertically opposite to the first side (8.1), a second vertical transistor device (1.2) formed laterally aside the first vertical transistor device (1.1) in the same substrate , having a source region (2.2) formed on the first side (8.1) of the substrate and a drain region (4.2) formed on the second side (8.2) of the substrate , a source region (2.2) formed on the first side (8.1) of the substrate and a drain region (4.2) formed on the second side (8.2) of the substrate , a conductive element arranged on the second side (8.2) of the substrate , electrically connecting the drain regions (4.1, 4.2) of the vertical transistor devices (1.1, 1.2), wherein a trench extending vertically into the substrate is formed on the second side (8.2) of the substrate , and wherein at least a part (9.1) of the conductive element is arranged in the trench , wherein a conductive material, of which the conductive element is formed, fills only a portion (11.1) of the trench , characterized in that another portion (11.2) of the trench is filled with a polymeric material , wherein the polymeric material covers the second side (8.2) of the substrate only partly.
Gripping device for gripping objects, with: a sleeve-like base body , a permanent magnet accommodated in the base body , an armature element which is arranged coaxially with the permanent magnet and is configured such that it is able to be transferred between a first position close to the permanent magnet and a second position remote from the permanent magnet, wherein the sleeve-like base body comprises at least two gripper fingers which are each connected to the armature element via an actuating bar , and the gripper fingers move towards one another when the armature element is transferred into the first position to a gripping position, and move away from one another when the armature element is transferred into the second position to a release position, and wherein the gripping device comprises a switchable coil which is designed to generate a magnetic field opposite to the permanent magnet in the switched state. a sleeve-like base body , a permanent magnet accommodated in the base body , an armature element which is arranged coaxially with the permanent magnet and is configured such that it is able to be transferred between a first position close to the permanent magnet and a second position remote from the permanent magnet, wherein the sleeve-like base body comprises at least two gripper fingers which are each connected to the armature element via an actuating bar , and the gripper fingers move towards one another when the armature element is transferred into the first position to a gripping position, and move away from one another when the armature element is transferred into the second position to a release position, and wherein the gripping device comprises a switchable coil which is designed to generate a magnetic field opposite to the permanent magnet in the switched state.
Method for operating a wireless receiver which receives station signals transmitted via communication channels from transmitting stations and emits a selected one of the station signals, wherein the method comprises the following steps: - determining the communication channels for a particular one of the station signals via which the particular one of the station signals is transmitted, - detecting reception properties for the determined communication channels , - detecting position data of the wireless receiver , - assigning the position data to the reception properties detected with regard to the determined communication channels , wherein a position-related received data set is determined for at least one of the station signals, and - transmitting the at least one position-related received data set to a server device in order to store the at least one position-related received data set so that it is retrievable by the server device , characterised in that at least one of the station signals is received via at least two mutually different communication channels , difference data at least with regard to the respective standardised volume levels and a respective relative time offset of the station signal are determined and included within the position-related received data set. - determining the communication channels for a particular one of the station signals via which the particular one of the station signals is transmitted, - detecting reception properties for the determined communication channels , - detecting position data of the wireless receiver , - assigning the position data to the reception properties detected with regard to the determined communication channels , wherein a position-related received data set is determined for at least one of the station signals, and - transmitting the at least one position-related received data set to a server device in order to store the at least one position-related received data set so that it is retrievable by the server device ,