mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody or antigen-binding fragment thereof that specifically binds to FOLR1 wherein said antibody or antigen-binding fragment thereof comprises the VH-CDR1, VH-CDR2, VH-CDR3, VL-CDR1, VL-CDR2 and VL-CDR3 amino acid sequences of: SEQ ID NOs: 1, 2, and 3 and SEQ ID NOs: 13, 14, and 15.
A tillage tool arrangement for being attached to a mouldboard plough provided with at least one mouldboard plough body for turning soil, characterized in that the tillage tool arrangement comprises: at least one tillage tool unit ; and a bar for adjustably connecting the tillage tool unit to the mouldboard plough body ; wherein the bar , when connecting the tillage tool unit to the mouldboard plough body , extends upwards from the mouldboard plough body such that, when the mouldboard plough body is in operative, soil-turning state, the at least one tillage tool unit is in position to even out the soil turned by the mouldboard plough body . at least one tillage tool unit ; and a bar for adjustably connecting the tillage tool unit to the mouldboard plough body ; wherein the bar , when connecting the tillage tool unit to the mouldboard plough body , extends upwards from the mouldboard plough body such that, when the mouldboard plough body is in operative, soil-turning state, the at least one tillage tool unit is in position to even out the soil turned by the mouldboard plough body .
A method of forming a foundation of a wind turbine including a tower having a base tower section, comprising: mounting a levelling apparatus to an anchor cage , the anchor cage comprising: an upper flange, a lower flange, and a plurality of anchor bolts extending between the upper flange and the lower flange , the levelling apparatus being arranged between the upper and the lower flanges; arranging the anchor cage in an excavation pit; directing a first cementitious material into the excavation pit so that the upper flange becomes at least partially embedded within the first cementitious material; allowing the first cementitious material to cure to form a rigid body; actuating the levelling apparatus to raise the upper flange from the rigid body into a levelled position; directing a grout material into a space beneath the raised upper flange; and allowing the grout material to cure to form a support layer. mounting a levelling apparatus to an anchor cage , the anchor cage comprising: an upper flange, a lower flange, and a plurality of anchor bolts extending between the upper flange and the lower flange , the levelling apparatus being arranged between the upper and the lower flanges; arranging the anchor cage in an excavation pit; directing a first cementitious material into the excavation pit so that the upper flange becomes at least partially embedded within the first cementitious material; allowing the first cementitious material to cure to form a rigid body; actuating the levelling apparatus to raise the upper flange from the rigid body into a levelled position; directing a grout material into a space beneath the raised upper flange; and allowing the grout material to cure to form a support layer.
Method for providing a secure telegram with a useful data part containing useful data and a test data part, wherein the test data part represents unadulterated original useful data, in which - the original useful data is stored in a secure software environment which is embodied as a closed system with regulated access from and to the non-secure part, - a useful data copy of the original useful data is stored outside the secure software environment, - the test data part containing original test data is generated in the secure software environment or outside the secure software environment , and - a test data copy of the original test data is stored outside the secure software environment if the test data part was generated in the secure software environment, - a copy of the useful data copy in the secure software environment is compared with the original useful data and/or a representation of the original useful data, and - a copy of the test data copy in the secure software environment is compared with the original test data and/or the representation of the original test data if the test data copy was stored outside the secure software environment, - the telegram containing the useful data copy as useful data and containing the test data part is provided only if the comparison has shown that the copy of the useful data copy corresponds to the original useful data and - the copy of the test data copy corresponds to the original test data if the test data copy was stored outside the secure software environment. - the original useful data is stored in a secure software environment which is embodied as a closed system with regulated access from and to the non-secure part, - a useful data copy of the original useful data is stored outside the secure software environment, - the test data part containing original test data is generated in the secure software environment or outside the secure software environment , and - a test data copy of the original test data is stored outside the secure software environment if the test data part was generated in the secure software environment, - a copy of the useful data copy in the secure software environment is compared with the original useful data and/or a representation of the original useful data, and - a copy of the test data copy in the secure software environment is compared with the original test data and/or the representation of the original test data if the test data copy was stored outside the secure software environment, - the telegram containing the useful data copy as useful data and containing the test data part is provided only if the comparison has shown that the copy of the useful data copy corresponds to the original useful data and - the copy of the test data copy corresponds to the original test data if the test data copy was stored outside the secure software environment.
Method for fabricating a high-resolution thermal infrared sensor array in a vacuum-filled wafer-level package with particularly small dimensions, which consists of at least two wafers, a cover wafer and a central wafer with a plurality of sensitive infrared-sensitive sensor pixels with a size of < 50 μm each on a thin, slotted membrane above a heat-insulating cavity in the central wafer , wherein the lid wafer is provided on the inside with at least one cavity , the depth of which corresponds to some 10 μm to half the total thickness of the lid wafer and is mechanically firmly connected to the prepared central wafer with the infrared-sensitive pixels by wafer bonding, whereby the central wafer is subsequently thinned from the back of the wafer to a predetermined thickness of less than 200 μm, wherein depth etchings are made to produce one cavity under each pixel after thinning the central wafer , and wherein, after thinning the central wafer , at least one bottom wafer is fixed to the back of the wafer by wafer bonding and then thinned. wherein the lid wafer is provided on the inside with at least one cavity , the depth of which corresponds to some 10 μm to half the total thickness of the lid wafer and is mechanically firmly connected to the prepared central wafer with the infrared-sensitive pixels by wafer bonding, whereby the central wafer is subsequently thinned from the back of the wafer to a predetermined thickness of less than 200 μm, wherein depth etchings are made to produce one cavity under each pixel after thinning the central wafer , and wherein, after thinning the central wafer , at least one bottom wafer is fixed to the back of the wafer by wafer bonding and then thinned.
A substrate processing device comprising: a housing , the housing has a top face with an inlet/outlet opening for letting a substrate in and out to the housing , the inlet/outlet opening having a diameter slightly larger than the diameter of the substrate ; holding means that holds, in the housing , a substrate subjected to an eliminating process of adhering materials on a processing surface of the substrate with the processing surface being directed to a bottom of the housing ; a rotating table that includes, on a surface thereof, the holding means ; supply means for supplying a process liquid to the processing surface of the substrate held by the holding means from the bottom side thereof; an inlet for taking a gaseous body in the housing , the inlet being a clearance formed between an outer periphery of the substrate and the inlet/outlet opening of the housing ; and an outlet for evacuating, from the housing , vapors of the process liquid in the housing together with the gaseous body taken in from the inlet characterized by further comprising: a suction means connected with the outlet , the suction means designed to vacuum an interior of the housing to suction air from the inlet to produce airflow; and an infrared lamp provided above the inlet/outlet opening for heating a rear side of the substrate . a housing , the housing has a top face with an inlet/outlet opening for letting a substrate in and out to the housing , the inlet/outlet opening having a diameter slightly larger than the diameter of the substrate ; holding means that holds, in the housing , a substrate subjected to an eliminating process of adhering materials on a processing surface of the substrate with the processing surface being directed to a bottom of the housing ; a rotating table that includes, on a surface thereof, the holding means ; supply means for supplying a process liquid to the processing surface of the substrate held by the holding means from the bottom side thereof; an inlet for taking a gaseous body in the housing , the inlet being a clearance formed between an outer periphery of the substrate and the inlet/outlet opening of the housing ; and an outlet for evacuating, from the housing , vapors of the process liquid in the housing together with the gaseous body taken in from the inlet characterized by further comprising: a suction means connected with the outlet , the suction means designed to vacuum an interior of the housing to suction air from the inlet to produce airflow; and an infrared lamp provided above the inlet/outlet opening for heating a rear side of the substrate . a suction means connected with the outlet , the suction means designed to vacuum an interior of the housing to suction air from the inlet to produce airflow; and an infrared lamp provided above the inlet/outlet opening for heating a rear side of the substrate .
A method for locating a radio tag (T17) of unknown position, wherein, in a group of radio tags (T1 - T18) assigned wirelessly to a single access point, a locating signal (On): a) is either emitted by one or multiple radio tags (T1 - T6, T10 - T12, T16, T18)) of known position and is received by the radio tag (T17) of unknown position, b) or is emitted by the radio tag (T17) of unknown position and is received by one or multiple radio tags (T1 - T6, T10 - T12, T16, T18) of known position, and in both cases a), b), the reception quality (Qn) of the locating signal (On) is determined in the radio tag (T1 - T6, T10 - T12, T16, T18) receiving the locating signal (On) and made available for localizing the position of the radio tag (T17) of unknown position, wherein the method for locating the radio tag (T17) of unknown position is started automatically from the radio tag (T17) of unknown position, characterized in that the radio tag of unknown position comprises a sensor for emitting a sensor signal, which indicates that the radio tag (T17) was removed from another object, in particular a shelf, and that in the presence of the sensor signal, its logic stage emits a status message via its radio communication stage, wherein the status message represents the confirmed removal from the other object and wherein the sensor signal is used for proactively waking up the radio tag (T17) of unknown position. a) is either emitted by one or multiple radio tags (T1 - T6, T10 - T12, T16, T18)) of known position and is received by the radio tag (T17) of unknown position, b) or is emitted by the radio tag (T17) of unknown position and is received by one or multiple radio tags (T1 - T6, T10 - T12, T16, T18) of known position, and in both cases a), b), the reception quality (Qn) of the locating signal (On) is determined in the radio tag (T1 - T6, T10 - T12, T16, T18) receiving the locating signal (On) and made available for localizing the position of the radio tag (T17) of unknown position, wherein the method for locating the radio tag (T17) of unknown position is started automatically from the radio tag (T17) of unknown position, characterized in that the radio tag of unknown position comprises a sensor for emitting a sensor signal, which indicates that the radio tag (T17) was removed from another object, in particular a shelf, and that in the presence of the sensor signal, its logic stage emits a status message via its radio communication stage, wherein the status message represents the confirmed removal from the other object and wherein the sensor signal is used for proactively waking up the radio tag (T17) of unknown position.
Plug-in connector for providing an electrical connection, comprising: a collective seal having at least one through-opening and at least one electrically conductive plug-in contact , which can be guided through the at least one through-opening of the collective seal , wherein a template is provided for the through-opening in order to support the plug-in contact as it is guided through the through-opening of the collective seal , wherein the template has guide elements that can be swung out and can be opened in the through-opening of the collective seal by the plug-in contact , characterized in that the template has a predetermined breaking geometry between the guide elements that can be swung out, which geometry can be opened in the direction of the through-opening by the plug-in contact . a collective seal having at least one through-opening and at least one electrically conductive plug-in contact , which can be guided through the at least one through-opening of the collective seal , wherein a template is provided for the through-opening in order to support the plug-in contact as it is guided through the through-opening of the collective seal , wherein the template has guide elements that can be swung out and can be opened in the through-opening of the collective seal by the plug-in contact , characterized in that the template has a predetermined breaking geometry between the guide elements that can be swung out, which geometry can be opened in the direction of the through-opening by the plug-in contact .
Screen, such as a window covering (1; 401; 601) comprising a headrail (2; 402; 602); a bottom rail (6; 406; 606) movable with respect to the head rail; a middle rail (4; 404; 604) arranged movably between the head rail and the bottom rail, at least one collapsible screen material (8; 408; 608) supported by the middle rail and the bottom rail; a first control unit (10; 410; 610) comprising a first drive shaft , first control means (14, 16, 18; 414; 614) for rotating said first drive shaft, at least one first winding element rotatable with the first drive shaft for winding and unwinding first lift means extending between the head rail and the middle rail; a second control unit (20; 420; 620) comprising a second drive shaft , second control means for rotating said second drive shaft, at least one second winding element rotatable with the second drive shaft for winding and unwinding second lift means extending between the head rail and the bottom rail through the middle rail and the screen material; and a shaft rotation limiting system comprising a threaded shaft arranged on and rotatable in unison with one of the first and the second drive shafts, a coupling element threaded on said threaded shaft, wherein the coupling element is associated with and rotatable in unison with the other drive shaft, characterized in that the shaft rotation limiting system further comprises a toothed shaft arranged on and rotatable in unison with the other drive shaft and in that the coupling element is a toothed nut that is in continuous engagement with the toothed shaft .
System for cleaning a floor - having at least one cleaning robot , and - having control means for controlling the cleaning robot , characterised by - communications means for detecting at least one event with an increased soiling occurrence for at least one part of the floor, - wherein the control means set the intensity of the use of the cleaning robot for cleaning at least one part of the floor depending on the intensity of at least one event with an increased soiling occurrence. - having at least one cleaning robot , and - having control means for controlling the cleaning robot , characterised by - communications means for detecting at least one event with an increased soiling occurrence for at least one part of the floor, - wherein the control means set the intensity of the use of the cleaning robot for cleaning at least one part of the floor depending on the intensity of at least one event with an increased soiling occurrence.
Device for automated production of embossed signs, in particular of number plates, having an embossing device for embossing characters onto a sign blank, characterized in that the embossing device has at least two embossing rollers , which are assigned to one another and have in each case one roller wheel and embossing dies that are mounted thereon so as to be movable in an embossing direction, wherein the embossing dies of one embossing roller are positive embossing dies and the embossing dies of the other embossing roller are negative embossing dies.
A service fault locating method, comprising: determining (S102), that a service fault exists between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device and wherein the service fault comprises a link fault, port fault or device fault; obtaining (S103) a first network topology between the first layer-3 device and the second layer-3 device; determining (S104) a first forwarding path of a service packet between the first layer-3 device and the second layer-3 device according to the first network topology and a characteristic parameter of the service packet; configuring (S105) a forwarding entry for a forwarding device in the first forwarding path, and triggering (S105) the first layer-3 device to generate an extended layer-2 OAM packet, so that the extended layer-2 OAM packet and the service packet have a same forwarding path and the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining (S106) a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter, wherein a path parameter is a parameter used to measure path quality. determining (S102), that a service fault exists between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device and wherein the service fault comprises a link fault, port fault or device fault; obtaining (S103) a first network topology between the first layer-3 device and the second layer-3 device; determining (S104) a first forwarding path of a service packet between the first layer-3 device and the second layer-3 device according to the first network topology and a characteristic parameter of the service packet; configuring (S105) a forwarding entry for a forwarding device in the first forwarding path, and triggering (S105) the first layer-3 device to generate an extended layer-2 OAM packet, so that the extended layer-2 OAM packet and the service packet have a same forwarding path and the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining (S106) a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter, wherein a path parameter is a parameter used to measure path quality.
A head mounted display system configured to project light to an eye of a user to display augmented reality image content in a vision field of said user, said head-mounted display system comprising: a frame configured to be supported on a head of the user; an image projector configured to project images into the user's eye to display image content in the vision field of the user; at least one camera; at least one waveguide ; at least one coupling optical element configured such that light is coupled into said waveguide and guided therein, said at least one coupling optical element comprising a diffractive optical element having an coupling area for coupling light into said waveguide, said coupling area having an average thickness (T) in a range from 0.1 to 3 millimeters across; and at least one out-coupling element configured to couple light guided within said waveguide out of said waveguide and direct said light to said camera, wherein at least one camera is disposed in an optical path with respect to said at least one out-coupling optical element to receive at least a portion of the light that is coupled into said waveguide via the coupling area of the at least one coupling optical element and guided therein and that is coupled out from said waveguide by said at least one outcoupling element such that images may be captured by said camera. a frame configured to be supported on a head of the user; an image projector configured to project images into the user's eye to display image content in the vision field of the user; at least one camera; at least one waveguide ; at least one coupling optical element configured such that light is coupled into said waveguide and guided therein, said at least one coupling optical element comprising a diffractive optical element having an coupling area for coupling light into said waveguide, said coupling area having an average thickness (T) in a range from 0.1 to 3 millimeters across; and at least one out-coupling element configured to couple light guided within said waveguide out of said waveguide and direct said light to said camera, wherein at least one camera is disposed in an optical path with respect to said at least one out-coupling optical element to receive at least a portion of the light that is coupled into said waveguide via the coupling area of the at least one coupling optical element and guided therein and that is coupled out from said waveguide by said at least one outcoupling element such that images may be captured by said camera.