mhurhangee/patent-ind-claim-en huggingface dataset:
Fastening means for fixing two articles, consisting of a mixture of an aerobic adhesive and a hydrophilic substance forming a moisture buffer, characterised in that the aerobic adhesive is formed by silane MS polymers, that the hydrophilic substance is formed by a hydrophilic carrier fibre and that the fastening means is constructed as a mounting set comprising two receptacles for separate storage of the aerobic adhesive and the hydrophilic substance, wherein the aerobic adhesive and the hydrophilic substance are removable from the receptacles for mixing up of the fastening means and wherein moisture is admetered to the hydrophilic substance so that that fastening means lying in an interior space bounded by diffusion-tight surfaces and isolated from the environment can harden.
A method for joining at least two metal sheets (B 1 , B 2 ) resting on one another with a variable total thickness (D i ) by means of a clinching device comprising at least one punch and a die arranged coaxially to said punch, and at least the punch is arranged so as to be controllable by means of an electronic control unit and movable in an axial direction (A) relative to the die , wherein the two metal sheets (B 1 , B 2 ) are arranged in a plane between the punch and the die , and the penetration depth (DT) necessary for joining the metal sheets (B 1 , B 2 ) is adjustable, wherein before joining the metal sheets (B 1 , B 2 ), the current total thickness (D 1 ) is determined with the aid of the control unit and the penetration depth (DT 1 ) is set depending on the total thickness (D i ), characterized by the following steps: 1.1 Storing a number of different total thicknesses or total thickness ranges (D i ) in the control unit , 1.2 Assigning a penetration depth (DT i ) to a total thickness or to a total thickness range (D i ), 1.3 Calibrating the clinching device 1.4 Positioning of the clinching device with respect to the sheets to be joined (B 1 , B 2 ) to be joined in such a way that the die rests against the underside (B 20 ) of the second sheet (B 2 ), 1.5 Axially moving the punch into a position (A S1 ) in which the punch rests against the upper side (B 10 ) of the first metal sheet (B 1 ), 1.6 Detecting the path covered by the punch , 1.7 Detecting the total thickness (D 1 ) from the path covered by the punch and the calibrated zero position of the die , 1.8 Comparing the detected total thickness (D 1 ) with the stored total thicknesses or total thickness ranges (D i ), 1.9 Selecting the value assigned to the detected total thickness (D 1 ) for the penetration depth (DT), 1.10 Adjusting the penetration depth (DT) depending on the comparison made, and 1.11 Joining the two metal sheets (B 1 , B 2 ) with the set penetration depth (DT). 1.1 Storing a number of different total thicknesses or total thickness ranges (D i ) in the control unit , 1.2 Assigning a penetration depth (DT i ) to a total thickness or to a total thickness range (D i ), 1.3 Calibrating the clinching device 1.4 Positioning of the clinching device with respect to the sheets to be joined (B 1 , B 2 ) to be joined in such a way that the die rests against the underside (B 20 ) of the second sheet (B 2 ), 1.5 Axially moving the punch into a position (A S1 ) in which the punch rests against the upper side (B 10 ) of the first metal sheet (B 1 ), 1.6 Detecting the path covered by the punch , 1.7 Detecting the total thickness (D 1 ) from the path covered by the punch and the calibrated zero position of the die , 1.8 Comparing the detected total thickness (D 1 ) with the stored total thicknesses or total thickness ranges (D i ), 1.9 Selecting the value assigned to the detected total thickness (D 1 ) for the penetration depth (DT), 1.10 Adjusting the penetration depth (DT) depending on the comparison made, and 1.11 Joining the two metal sheets (B 1 , B 2 ) with the set penetration depth (DT).
A fluidic ejection cartridge , comprising a unitary integrally-formed body of sintered metal having an upper portion , a lower portion , a sidewall , and a bottom having a nosepiece , the body defining a reservoir , and in that the body comprises at least one of carbon steel, iron-nickel steel, nickel steel, low alloy steel, hardened steel, diffusion alloyed steel, 400 series stainless steel, and soft magnetic alloy.
A terminal protection device for a battery module, wherein the battery module comprises multiple unit cells , and the terminal protection device comprises: a base , comprising a bottom portion and a side plate connected to a peripheral side of the bottom portion , the side plate defining a receiving cavity together with the bottom portion and being provided with an input port through which an output terminal passes, and the input port being in communication with the receiving cavity , wherein the side plate is provided with an access port , the access port is in communication with the receiving cavity so that an external electrical connector is able to pass through the access port and be connected with the output terminal , a protection plate is disposed at the access port , and the protection plate is disposed to detachably cover the access port , wherein the output terminal is an output terminal of the battery module, and is used to connect with the external electrical connector to achieve interconnection between multiple battery modules when the multiple battery modules are connected to each other, and wherein the side plate comprises sliding slots extending in a third direction (Z) on inner surfaces facing the access port ; and the protection plate comprises a body portion and sliding plates located on two opposite edges of the body portion , and the sliding plates are movable relative to the sliding slots , so that the protection plate is detachably disposed in the sliding slots through the sliding plates . a base , comprising a bottom portion and a side plate connected to a peripheral side of the bottom portion , the side plate defining a receiving cavity together with the bottom portion and being provided with an input port through which an output terminal passes, and the input port being in communication with the receiving cavity , wherein the side plate is provided with an access port , the access port is in communication with the receiving cavity so that an external electrical connector is able to pass through the access port and be connected with the output terminal , a protection plate is disposed at the access port , and the protection plate is disposed to detachably cover the access port , wherein the output terminal is an output terminal of the battery module, and is used to connect with the external electrical connector to achieve interconnection between multiple battery modules when the multiple battery modules are connected to each other, and wherein the side plate comprises sliding slots extending in a third direction (Z) on inner surfaces facing the access port ; and the protection plate comprises a body portion and sliding plates located on two opposite edges of the body portion , and the sliding plates are movable relative to the sliding slots , so that the protection plate is detachably disposed in the sliding slots through the sliding plates .
A method for displaying a venue map of a venue on a mobile device , the method comprising: identifying a location of the mobile device using at least a global positioning system, GPS, receiver integrated with the mobile device ; generating the venue map , wherein the venue map includes graphics that are not to scale and has latitude and longitude information associated with multiple points on the venue map , wherein the latitude and longitude information are converted to map points using a series of markers on the venue map with known latitude and longitude location, the markers setting local rules regarding how longitude and latitude map to a point on the venue map, wherein the conversion from latitude and longitude information to points on the venue map utilizes a plurality of said markers that are closest to a latitude and longitude point, wherein marker information is weighted based on the distance of a respective marker from the latitude and longitude point, wherein the venue map has differing scales at different parts of the venue map , and wherein the venue map includes at least one point of interest having known latitude and longitude coordinates; displaying the generated venue map on a display of the mobile device ; and visually updating the location of the mobile device on the venue map using said local rules in response to changes in the location of the mobile device as the mobile device moves through the venue. identifying a location of the mobile device using at least a global positioning system, GPS, receiver integrated with the mobile device ; generating the venue map , wherein the venue map includes graphics that are not to scale and has latitude and longitude information associated with multiple points on the venue map , wherein the latitude and longitude information are converted to map points using a series of markers on the venue map with known latitude and longitude location, the markers setting local rules regarding how longitude and latitude map to a point on the venue map, wherein the conversion from latitude and longitude information to points on the venue map utilizes a plurality of said markers that are closest to a latitude and longitude point, wherein marker information is weighted based on the distance of a respective marker from the latitude and longitude point, wherein the venue map has differing scales at different parts of the venue map , and wherein the venue map includes at least one point of interest having known latitude and longitude coordinates; displaying the generated venue map on a display of the mobile device ; and visually updating the location of the mobile device on the venue map using said local rules in response to changes in the location of the mobile device as the mobile device moves through the venue.
Wind turbine comprising a rotor rotatable about a vertical axis of rotation and having a rotating hub and a plurality of rotor blades disposed along an outer periphery of the rotor , each rotor blade having a lower portion and an upper portion attached to an upper distal end of the lower portion , lower proximal ends of the lower portions of the rotor blades each being attached to the rotating hub at a first attachment portion, the lower portions of the rotor blades together with the hub , tension wires and stiffening wires forming an inverse pyramid, whereby the tension wires interconnect first fastening points on the rotor blades in the region of the distal ends of the lower portions of the rotor blades with each other, and characterized in that the stiffening wires connect the first fastening points with a second attachment portion of the hub , the second attachment portions being arranged below the first attachment portions, and the tension wires and the stiffening wires being under pretension.
Two-component mortar mass with a resin component (A), which contains at least a radically hardenable resin as hardenable component, and a hardener component (B), which contains a hardener for the radically hardenable resin of the resin component (A), in which the radically hardenable resin is obtained by converting an at least difunctional component, which has two or more reactive groups (RG-A), with a silane intermediate compound and an ethylenically unsaturated compound, in which the silane intermediate compound and the ethylenically unsaturated compound each have active functional groups (AG), which react with the reactive groups (RG-A), forming a covalent bond, in which the silane intermediate compound is the conversion product of a cyclic organic compound with a functionalised silane compound, which has at least a reactive group (RG-B), in which the cyclic organic compound has the active functional group (AG) or a precursor for it and a reactive group (RG-C), which reacts with the reactive group (RG-B) of the functionalised silane compound, forming the silane intermediate compound, and in which the silane intermediate compound is used in a proportion of at least about 2% by weight of the resin component (A) with reference to the organic components of the resin component (A). in which the radically hardenable resin is obtained by converting an at least difunctional component, which has two or more reactive groups (RG-A), with a silane intermediate compound and an ethylenically unsaturated compound, in which the silane intermediate compound and the ethylenically unsaturated compound each have active functional groups (AG), which react with the reactive groups (RG-A), forming a covalent bond, in which the silane intermediate compound is the conversion product of a cyclic organic compound with a functionalised silane compound, which has at least a reactive group (RG-B), in which the cyclic organic compound has the active functional group (AG) or a precursor for it and a reactive group (RG-C), which reacts with the reactive group (RG-B) of the functionalised silane compound, forming the silane intermediate compound, and in which the silane intermediate compound is used in a proportion of at least about 2% by weight of the resin component (A) with reference to the organic components of the resin component (A).
A multiway switch , comprising: four T ports and 2 n P ports, the four T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; characterized in that the four T ports further comprise two second T ports; each of the two second T ports is coupled with only one of the 2 n P ports and the two second T ports at the same frequency band are coupled with different P ports; each of the 2 n P ports is configured to be coupled with a corresponding antenna of the 2 n antennas; the two first T ports at least support a transmission function; and the two second T ports support only a reception function. four T ports and 2 n P ports, the four T ports comprising two first T ports, and each of the two first T ports being coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled, through said T ports, with a radio frequency circuit and, through said P ports, with an antenna system of a wireless communication device operable in a dual-frequency dual-transmit mode, to implement a preset function of the wireless communication device, the antenna system comprising 2 n antennas corresponding to the 2 n P ports, and the preset function being a function of transmitting a sounding reference signal, SRS, through the 2 n antennas in turn; characterized in that the four T ports further comprise two second T ports; each of the two second T ports is coupled with only one of the 2 n P ports and the two second T ports at the same frequency band are coupled with different P ports; each of the 2 n P ports is configured to be coupled with a corresponding antenna of the 2 n antennas; the two first T ports at least support a transmission function; and the two second T ports support only a reception function.
A stud configured to be inserted into a tread portion of a tire, the stud comprising: a tip end for protruding from the tread portion for contacting a road surface; and a base including a flanged bottom portion provided on an end opposite the tip end and the base extending radially outward when the stud is inserted into the tread portion of the tire, a stump portion provided between the flanged bottom portion and the tip end , and a shank portion interconnecting the stump portion and the bottom portion ; wherein the base is for being embedded and secured in the tread portion of the tire in which the stud is installed; and wherein the flanged bottom portion at least substantially has a tear-drop shape or a truncated tear-drop shape in cross section of the stud in a radially inward view comprising three at least substantially planar sides and one at least substantially semi-cylindrical side , characterized in that the tip end comprises a radially outer portion comprising a first surface , the first surface defining an irregular quadrilateral, and/or wherein the flanged bottom portion has a configuration such that an inclined surface extends radially inward from sides of the bottom portion and away from the tip end when the stud is inserted into the tread portion of the tire. a tip end for protruding from the tread portion for contacting a road surface; and a base including a flanged bottom portion provided on an end opposite the tip end and the base extending radially outward when the stud is inserted into the tread portion of the tire, a stump portion provided between the flanged bottom portion and the tip end , and a shank portion interconnecting the stump portion and the bottom portion ; wherein the base is for being embedded and secured in the tread portion of the tire in which the stud is installed; and wherein the flanged bottom portion at least substantially has a tear-drop shape or a truncated tear-drop shape in cross section of the stud in a radially inward view comprising three at least substantially planar sides and one at least substantially semi-cylindrical side , characterized in that the tip end comprises a radially outer portion comprising a first surface , the first surface defining an irregular quadrilateral, and/or wherein the flanged bottom portion has a configuration such that an inclined surface extends radially inward from sides of the bottom portion and away from the tip end when the stud is inserted into the tread portion of the tire.
An x-ray weld inspection apparatus comprising: - at least one x-ray source attached on a first mounting ; - at least one x-ray detector attached on a second mounting ; - a motor arrangement configured to move, using the first and second mountings , respectively, the at least one x-ray source and the at least one x-ray detector substantially along a weld , the weld being a pipeline weld; and - a control device comprising memory and at least one processing core, configured to: ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld ; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld , the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld , producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets. - at least one x-ray source attached on a first mounting ; - at least one x-ray detector attached on a second mounting ; - a motor arrangement configured to move, using the first and second mountings , respectively, the at least one x-ray source and the at least one x-ray detector substantially along a weld , the weld being a pipeline weld; and - a control device comprising memory and at least one processing core, configured to: ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld ; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld , the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld , producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets. ▪ control the motor arrangement to move the at least one x-ray source and the at least one x-ray detector during an x-ray weld scan substantially along the direction of the weld ; ▪ wherein at least one section of the weld is imaged at least twice during a single x-ray scan by moving at least one of the at least one x-ray detector in an oscillating movement substantially along the direction of the weld , the oscillating movement superimposed on movement of the at least one x-ray detector substantially along the direction of the weld during the scan of the weld , producing at least two imaging data sets, respectively, and ▪ wherein an angle of incidence of x-rays at the at least one section of the weld is different for the imaging data sets.
Detecting apparatus adapted to detect at least one physical value in areas of a brain of a subject , the detecting apparatus comprising : - at least two sensors , with at least one sensor being an ultrasound transducer adapted to produce ultrasound waves, the ultrasound transducer being adapted to detect cerebral blood volume and flow through Doppler sequences or contrast agents, the detecting apparatus comprising at least two sensors adapted to measure different physical quantities, and - a positioning device defining several compartments , each compartment being adapted to hold a sensor and each compartment being located at predetermined location, the positioning device comprising a holder adapted to be fixed on the skull of a subject, the positioning device being adapted to be maintained on the head of the subject using the holder, the compartments being removable cases. - at least two sensors , with at least one sensor being an ultrasound transducer adapted to produce ultrasound waves, the ultrasound transducer being adapted to detect cerebral blood volume and flow through Doppler sequences or contrast agents, the detecting apparatus comprising at least two sensors adapted to measure different physical quantities, and - a positioning device defining several compartments , each compartment being adapted to hold a sensor and each compartment being located at predetermined location, the positioning device comprising a holder adapted to be fixed on the skull of a subject, the positioning device being adapted to be maintained on the head of the subject using the holder,
A removable printing component comprising: an integrated circuit , comprising: a plurality of fluid actuation devices ; a circuit configured to have a memory access state which can be set to one of an enabled state and disabled state; a fluid actuation circuit to transmit selection information for a fluid actuation device , the selection information to control the dispersion of fluid through the plurality of fluid actuation devices and comprising a data state bit ; and a memory cell array, configured so that each memory cell is accessible by the memory access state being enabled, and the data state bit being set. a plurality of fluid actuation devices ; a circuit configured to have a memory access state which can be set to one of an enabled state and disabled state; a fluid actuation circuit to transmit selection information for a fluid actuation device , the selection information to control the dispersion of fluid through the plurality of fluid actuation devices and comprising a data state bit ; and a memory cell array, configured so that each memory cell is accessible by the memory access state being enabled, and the data state bit being set.