mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle having a vicinity lighting device, wherein the vicinity lighting device comprises: - a first projection module , which is arranged in an immobile vehicle body part adjacent to a pivotable vehicle door of the motor vehicle and comprises an array which is made of projection optical units, which, when the first projection module is switched on, projects a light distribution (LV) onto the ground adjacent to the immobile vehicle body part with the light of at least one light source, which forms part of the first projection module ; - a second projection module , which is arranged on the outer side of the vehicle door and comprises at least one projection optical unit which, when the second projection module is switched on, projects a pictogram onto the ground adjacent to the vehicle door with the light of at least one light source which forms part of the second projection module ; - wherein a control device is provided, which can be used to control the vicinity lighting device in such a way that, if an event that is triggered by a user in the vicinity of the motor vehicle is detected, the first projection module is switched on and at the same time or after a delay the second projection module is switched on, as a result of which the pictogram of the second projection module is projected onto the light distribution (LV) of the first projection module . - a first projection module , which is arranged in an immobile vehicle body part adjacent to a pivotable vehicle door of the motor vehicle and comprises an array which is made of projection optical units, which, when the first projection module is switched on, projects a light distribution (LV) onto the ground adjacent to the immobile vehicle body part with the light of at least one light source, which forms part of the first projection module ; - a second projection module , which is arranged on the outer side of the vehicle door and comprises at least one projection optical unit which, when the second projection module is switched on, projects a pictogram onto the ground adjacent to the vehicle door with the light of at least one light source which forms part of the second projection module ; - wherein a control device is provided, which can be used to control the vicinity lighting device in such a way that, if an event that is triggered by a user in the vicinity of the motor vehicle is detected, the first projection module is switched on and at the same time or after a delay the second projection module is switched on, as a result of which the pictogram of the second projection module is projected onto the light distribution (LV) of the first projection module .
A downhole drilling system, comprising: a bottom-hole assembly including: a pulse-generating circuit ; and a switching circuit within the pulse-generating circuit, the switching circuit comprising a plurality of solid-state switches coupled together is series; and a drill bit including a first electrode and a second electrode electrically coupled to the pulse-generating circuit to receive a pulse from the pulse-generating circuit. a bottom-hole assembly including: a pulse-generating circuit ; and a switching circuit within the pulse-generating circuit, the switching circuit comprising a plurality of solid-state switches coupled together is series; and a drill bit including a first electrode and a second electrode electrically coupled to the pulse-generating circuit to receive a pulse from the pulse-generating circuit.
A method performed in a radio device connected to a communication network comprising a core network, CN, and a Radio Access Network, RAN, , where there is a communication bearer between the radio device and the CN via the RAN comprising a radio bearer between the radio device and a RAN node of the RAN, for adapting a Quality of Service, QoS, of the communication bearer, the method comprising: to the CN , sending (S1) a request (a) for a first QoS level to be associated with the communication bearer; exchanging (S2) data over the radio bearer in accordance with the first QoS level of the communication bearer; to the RAN , sending (S5) a request (b1) for the RAN to associate a second QoS level, lower than the first QoS level, with the radio bearer , or from the RAN , receiving (S6) a request (b2) for the radio device to associate the second QoS level with the radio bearer ; to the RAN , sending (S3) an indication (d) that the second QoS level should be used for the radio bearer ; and exchanging (S4) data over the radio bearer in accordance with the second QoS level. to the CN , sending (S1) a request (a) for a first QoS level to be associated with the communication bearer; exchanging (S2) data over the radio bearer in accordance with the first QoS level of the communication bearer; to the RAN , sending (S5) a request (b1) for the RAN to associate a second QoS level, lower than the first QoS level, with the radio bearer , or from the RAN , receiving (S6) a request (b2) for the radio device to associate the second QoS level with the radio bearer ; to the RAN , sending (S3) an indication (d) that the second QoS level should be used for the radio bearer ; and exchanging (S4) data over the radio bearer in accordance with the second QoS level.
An isolated nucleic acid comprising an expression construct encoding a chimeric antigen receptor (CAR), wherein the CAR comprises: (i) an antigen binding domain that specifically binds one or more Adeno-associated virus (AAV) capsid protein epitopes; (ii) a transmembrane domain; and (iii) a cytoplasmic signaling domain. (i) an antigen binding domain that specifically binds one or more Adeno-associated virus (AAV) capsid protein epitopes; (ii) a transmembrane domain; and (iii) a cytoplasmic signaling domain.
Apparatus comprising: a module comprising: means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and at least one other module comprising means for receiving the group command via an interface that is addressable by the second address. a module comprising: means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and means for receiving an individual command for the module via a first interface of the module addressable by a first address; and means for receiving a group command via a second interface addressable by a second address; and at least one other module comprising means for receiving the group command via an interface that is addressable by the second address.
Agricultural harvesting machine, in particular in the form of a loader wagon, comprising a loading chamber which can be opened and closed by an unloading door , and an unloading-metering device for unloading and metering the crops out of the loading chamber , wherein the unloading-metering device comprises at least one metering roller which is mounted in an adjustable position in order to reduce the start-up resistance, characterised in that the metering roller is mounted such that it can be adjusted in multiple stages, wherein the metering roller has a first adjustment path when the unloading door is closed in order to move out of the way under crop pressure counter to a first preload force of a preload device and has a second adjustment path when the unloading door is open in order to move out of the way under crop pressure without overcoming a preload force or counter to a second preload force that is lower than the first preload force.
A method for aligning a headlight adjustment device comprising a light collecting box which is fastened to a movable supporting frame , wherein, for determining the driving axis of a vehicle , a light beam of a light projection device attached to the two opposite, non-steered wheels of the vehicle impinges on a reflector, wherein the reflector is aligned by a pivot angle perpendicular to the light beam , and wherein a driving axis of the vehicle is determined on the basis of an average value of the pivot angle, characterized in that the reflector is formed by an attachment which is attached to the light collecting box of the headlight adjustment device and comprises five main side surfaces which are arranged at right angles to each another and are connected to each other at the edges so as to form a receptacle having an opening on one side, wherein a first main side surface is located opposite said opening and comprises a reflecting surface .
An actuator device for active reduction, damping and/or absorption of vibrations, in particular of vibrations generated by an external device, with at least one movably supported armature element and with at least one permanent magnet , which is coupled with the armature element , in particular an outer side of the armature element , and which extends around the armature element at least section-wise, in particular in a ring shape, wherein at least in an axial direction of the armature element , which runs at least substantially parallel to a main movement axis of the armature element , the permanent magnet is encapsulated by the armature element , in particular at least on two sides, wherein the armature element comprises in its interior at least one hollow space , characterized in that the hollow space has at least one recess on an inner wall .
A method of coating a fabric with an even coating distribution of a fluid, the method comprising: causing at least one nozzle to at least partially traverse a length of fabric in a first direction whilst causing the fluid to be emitted and simultaneously oscillating the at least one nozzle to thereby coat onto the fabric unevenly in a first spray zone; then causing relative movement of the fabric and the at least one nozzle in the length direction of the fabric , the first direction being angled to the length direction of the fabric ; and then causing the at least one nozzle to traverse a second length of fabric in a second direction whilst causing the fluid to be emitted and simultaneously oscillating the at least one nozzle to thereby coat onto the fabric unevenly in a second spray zone, wherein the first direction and the second direction are opposite directions, and each spray zone at least partially overlaps another spray zone. causing at least one nozzle to at least partially traverse a length of fabric in a first direction whilst causing the fluid to be emitted and simultaneously oscillating the at least one nozzle to thereby coat onto the fabric unevenly in a first spray zone; then causing relative movement of the fabric and the at least one nozzle in the length direction of the fabric , the first direction being angled to the length direction of the fabric ; and then causing the at least one nozzle to traverse a second length of fabric in a second direction whilst causing the fluid to be emitted and simultaneously oscillating the at least one nozzle to thereby coat onto the fabric unevenly in a second spray zone, wherein the first direction and the second direction are opposite directions, and each spray zone at least partially overlaps another spray zone.
A computing system comprising: a central processing unit, CPU; and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy. a central processing unit, CPU; and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy. accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy.
A scanning probe microscope , in particular an atomic force microscope, for analysing a sample by moving a probe and the sample relative to one another, wherein the scanning probe microscope comprises a detection unit which comprises a side view camera arranged and configured for detecting an image of the sample in a substantially horizontal side view when the sample and the probe are spaced in a vertical direction, wherein the side view camera is arranged and configured for additionally monitoring a gap between the sample and the probe in the substantially horizontal side view; a determining unit for determining information indicative of a profile of at least part of a surface of the sample based on the detected image, characterised in that the determining unit is configured for determining information of at least one of the group consisting of determining multiple height values from a shadow image of the sample , and determining a three dimensional surface function of at least part of the sample , wherein the determining unit is further configured for determining information indicative of the profile by combining multiple images of the sample detected by the detection unit from different positions and/or orientations relative to the sample , and wherein providing the multiple images comprises at least one of the group which consists of: providing two or more side view cameras , rotating the side view camera , rotating the sample . a detection unit which comprises a side view camera arranged and configured for detecting an image of the sample in a substantially horizontal side view when the sample and the probe are spaced in a vertical direction, wherein the side view camera is arranged and configured for additionally monitoring a gap between the sample and the probe in the substantially horizontal side view; a determining unit for determining information indicative of a profile of at least part of a surface of the sample based on the detected image, characterised in that the determining unit is configured for determining information of at least one of the group consisting of determining multiple height values from a shadow image of the sample , and determining a three dimensional surface function of at least part of the sample , wherein the determining unit is further configured for determining information indicative of the profile by combining multiple images of the sample detected by the detection unit from different positions and/or orientations relative to the sample , and wherein providing the multiple images comprises at least one of the group which consists of: providing two or more side view cameras , rotating the side view camera , rotating the sample .
A floor treatment machine for cleaning and/or treating a floor surface, the floor treatment machine comprising: a body portion provided with a rotatable floor-engaging treatment workhead and a motor comprising a centrally disposed rotatable drive shaft coaxial with and connected to the floor engaging workhead , a stator comprising an annular coil disposed around the drive shaft , and a rotatable magnet assembly disposed at a spaced location around the stator , wherein the magnet assembly is coupled to the drive shaft and rotatable therewith; and wherein the dimensions of the motor are selected such that the magnet assembly , drive shaft and floor treatment workhead are selectively rotatable at speeds in the range between 100 and 250 revolutions per minute and provide a predetermined torque selected according to the application. a body portion provided with a rotatable floor-engaging treatment workhead and a motor comprising a centrally disposed rotatable drive shaft coaxial with and connected to the floor engaging workhead , a stator comprising an annular coil disposed around the drive shaft , and a rotatable magnet assembly disposed at a spaced location around the stator , wherein the magnet assembly is coupled to the drive shaft and rotatable therewith; and wherein the dimensions of the motor are selected such that the magnet assembly , drive shaft and floor treatment workhead are selectively rotatable at speeds in the range between 100 and 250 revolutions per minute and provide a predetermined torque selected according to the application.
A dual-sloping carousel assembly including a dual-sloping carousel and a conveyor belt outside the dual-sloping carousel , the dual-sloping carousel comprising: a plurality of slats consecutively disposed to allow a transferring surface of the dual-sloping carousel to form a closed loop; a connecting portion configured to allow the slats to slope downward from an outer side to an inner side of the dual-sloping carousel defining a slope direction of the connecting portion , the connecting portion being provided on a portion on which baggage is transferred from the conveyor belt ; characterised in that the dual-sloping carousel assembly further comprises a pickup portion configured to allow the slats to slope downward from the inner side to the outer side of the dual-sloping carousel defining a slope direction of the pickup portion, the pickup portion to be spaced apart from the connecting portion by a predetermined distance, wherein said slope direction of the connecting portion is opposite to said slope direction of the pickup portion. a plurality of slats consecutively disposed to allow a transferring surface of the dual-sloping carousel to form a closed loop; a connecting portion configured to allow the slats to slope downward from an outer side to an inner side of the dual-sloping carousel defining a slope direction of the connecting portion , the connecting portion being provided on a portion on which baggage is transferred from the conveyor belt ; characterised in that the dual-sloping carousel assembly further comprises a pickup portion configured to allow the slats to slope downward from the inner side to the outer side of the dual-sloping carousel defining a slope direction of the pickup portion, the pickup portion to be spaced apart from the connecting portion by a predetermined distance, wherein said slope direction of the connecting portion is opposite to said slope direction of the pickup portion.
A vibration generation system comprising: a vibrator configured to be fitted to a human body for use; a variable filter configured to extract a signal of a predefined frequency range from an input music signal; a driver configured to drive the vibrator based on the signal of the frequency range extracted by the variable filter ; a user operation interface configured to adjust the predefined frequency range and to adjust a time difference between a sound wave of the music signal transmitted to an ear of the human body and the vibration of the music signal transmitted from the vibrator to a bone of the human body; and a frequency determination interface configured to determine the predefined frequency range, based on the music signal. a vibrator configured to be fitted to a human body for use; a variable filter configured to extract a signal of a predefined frequency range from an input music signal; a driver configured to drive the vibrator based on the signal of the frequency range extracted by the variable filter ; a user operation interface configured to adjust the predefined frequency range and to adjust a time difference between a sound wave of the music signal transmitted to an ear of the human body and the vibration of the music signal transmitted from the vibrator to a bone of the human body; and a frequency determination interface configured to determine the predefined frequency range, based on the music signal.
Process for continuous production of multilayered composite articles, comprising (A) at least one carrier material, (B) at least one joining layer and (C) at least one polyurethane layer comprising capillaries extending through the entire thickness of the polyurethane, characterized in that polyurethane layer (C) is produced using a mould and this polyurethane layer (C) is secured to the carrier material (A) using a material that is converted into joining layer (B), wherein the mould has a temperature in the range from 80°C to 170°C and has a heat capacity in the range from 100 to 20 000 J/K·m 2 and wherein the mould is in the form of an endless tape which using rollers is run past different apparatus parts at which the relevant process steps are performed. (A) at least one carrier material, (B) at least one joining layer and (C) at least one polyurethane layer comprising capillaries extending through the entire thickness of the polyurethane,