mhurhangee/patent-ind-claim-en huggingface dataset:
A node for use in positioning of a wireless unit, the node comprising: a transmitter arranged to broadcast system information arranged to trigger a registration, wherein the system information comprises a first registration area code; a receiver arranged to receive registration requests from wireless devices in receipt of the system information, wherein the node is arranged to: in response to a registration request received from any wireless device in receipt of the broadcasted system information, transmit, via the transmitter , a response to said any wireless device indicating that the registration request is rejected, and change the first registration area code to a second registration area code when a registration area code update condition is met; characterised in that the registration area code update condition comprises at least one of: a first timer has expired, wherein the first timer is initialized upon transmission of the registration request rejection, and a number of registration request rejections transmitted by the node within a time window has exceeded a threshold. a transmitter arranged to broadcast system information arranged to trigger a registration, wherein the system information comprises a first registration area code; a receiver arranged to receive registration requests from wireless devices in receipt of the system information, wherein the node is arranged to: in response to a registration request received from any wireless device in receipt of the broadcasted system information, transmit, via the transmitter , a response to said any wireless device indicating that the registration request is rejected, and change the first registration area code to a second registration area code when a registration area code update condition is met; characterised in that the registration area code update condition comprises at least one of: a first timer has expired, wherein the first timer is initialized upon transmission of the registration request rejection, and a number of registration request rejections transmitted by the node within a time window has exceeded a threshold. in response to a registration request received from any wireless device in receipt of the broadcasted system information, transmit, via the transmitter , a response to said any wireless device indicating that the registration request is rejected, and change the first registration area code to a second registration area code when a registration area code update condition is met; characterised in that the registration area code update condition comprises at least one of: a first timer has expired, wherein the first timer is initialized upon transmission of the registration request rejection, and a number of registration request rejections transmitted by the node within a time window has exceeded a threshold. a first timer has expired, wherein the first timer is initialized upon transmission of the registration request rejection, and a number of registration request rejections transmitted by the node within a time window has exceeded a threshold.
A reflector clamping member (RCM) for fixating an ultrasound reflector (REF) to a flow conduit insert (FCI) of an ultrasonic flow meter (UFM), the reflector clamping member (RCM) comprising a fixation portion (FXN) for fixating the reflector clamping member (RCM) to the flow conduit insert (FCI) and a flexible portion (FLX) for contacting the ultrasound reflector (REF), wherein the flexible portion (FLX) is adapted for supporting at least one side of the ultrasound reflector (REF) so as to clamp the ultrasound reflector (REF) between the flexible portion (FLX) and the flow conduit insert (FCI) when the reflector clamping member (RCM), the ultrasound reflector (REF), and the flow conduit insert (FCI) are assembled, wherein the flexible portion (FLX) comprises an elastic portion, and wherein the reflector clamping member (RCM) is adapted for, in assembled configuration, exerting a force on the ultrasound reflector (REF), said force having a component in the direction of the flow conduit insert (FCI). the reflector clamping member (RCM) comprising a fixation portion (FXN) for fixating the reflector clamping member (RCM) to the flow conduit insert (FCI) and a flexible portion (FLX) for contacting the ultrasound reflector (REF), wherein the flexible portion (FLX) is adapted for supporting at least one side of the ultrasound reflector (REF) so as to clamp the ultrasound reflector (REF) between the flexible portion (FLX) and the flow conduit insert (FCI) when the reflector clamping member (RCM), the ultrasound reflector (REF), and the flow conduit insert (FCI) are assembled, wherein the flexible portion (FLX) comprises an elastic portion, and wherein the reflector clamping member (RCM) is adapted for, in assembled configuration, exerting a force on the ultrasound reflector (REF), said force having a component in the direction of the flow conduit insert (FCI).
Microscope comprising an image processing unit , the image processing unit comprising a first input section configured to receive visible image data representing a visible-light image of an object , a second input section configured to receive fluorescence image data representing a fluorescent-light image of the object , and an output section configured to output pseudocolor image data representing a pseudocolor image of the object , wherein the image processing unit is adapted to compute a color (r o , g o , b o ) of an output pixel in the pseudocolor image from at least one pseudocolor (r p , g p , b p ), a color (r i , g i , b i ) of a first input pixel in the visible-light image and an intensity (f) of a second input pixel in the fluorescence-light image , wherein the color (r o , g o , b o ) of the output pixel , in a color space (RGB), is located linearly between the color (r i , g i , b i ) of the first input pixel and the at least one pseudocolor (r p , g p , b p ), the distance between the color of the output pixel and the color of the first input pixel being proportionate to the intensity (f) of the second input pixel of the fluorescent-light image .
A leaf spring element having a first lateral portion , a second lateral portion and a central portion acting as a spring and located between the first lateral portion and the second lateral portion, each of the first and second lateral portions having a substantially rectangular shape and comprising a slanted leg , each slanted leg comprising a first leg portion and a second leg portion, the first leg portion substantially lying in a first plane, the second leg portion substantially lying on a second plane different from the first plane, the second leg portion ending with a hollow section , each of the first and second lateral portions comprising a first corner substantially facing the central portion; the central portion being a bent central portion having a substantially trapezoidal shape with a first slanted edge and a second slanted edge ; the leaf spring element further comprising first and second cut sections separating the central portion from the first and second lateral portions respectively, each of the first and second cut sections having a distal end and a proximate end , the distal end being located between the first or second slanted edge and the first corner of the first and second lateral portions.
Unlocking device for unlocking and opening a lock of a movable vehicle element (FE), in particularly a vehicle door, a vehicle front bonnet and/or vehicle boot lid, wherein the unlocking device at least comprises: - a locking mechanism for locking the lock , wherein the locking mechanism holds the lock in at least a primary locking position (PV) or a partially unlocked preliminary latching position (V), - a detection unit which has a detection region (5.1) for detecting at least one object (O) approaching the detection region (5.1) or located or moving in the detection region (5.1), and - a lighting unit having an illumination region (6.1) for illuminating the detection region (5.1) of the detection unit , wherein the lighting unit and/or the detection unit become/becomes or are/is activated at least when the locking mechanism becomes or is adjusted from the primary locking position (PV) to the preliminary latching position (V), wherein an actuator is provided, which is signal-coupled and/or movement-coupled to the locking mechanism of the lock for fully unlocking the lock , wherein the detection unit is signal-coupled to the actuator , wherein upon detection of an object (O) in the detection region (5.1) the actuator automatically fully unlocks the locking mechanism and opens the lock . - a locking mechanism for locking the lock , wherein the locking mechanism holds the lock in at least a primary locking position (PV) or a partially unlocked preliminary latching position (V), - a detection unit which has a detection region (5.1) for detecting at least one object (O) approaching the detection region (5.1) or located or moving in the detection region (5.1), and - a lighting unit having an illumination region (6.1) for illuminating the detection region (5.1) of the detection unit , wherein the lighting unit and/or the detection unit become/becomes or are/is activated at least when the locking mechanism becomes or is adjusted from the primary locking position (PV) to the preliminary latching position (V), wherein an actuator is provided, which is signal-coupled and/or movement-coupled to the locking mechanism of the lock for fully unlocking the lock , wherein the detection unit is signal-coupled to the actuator , wherein upon detection of an object (O) in the detection region (5.1) the actuator automatically fully unlocks the locking mechanism and opens the lock . wherein the lighting unit and/or the detection unit become/becomes or are/is activated at least when the locking mechanism becomes or is adjusted from the primary locking position (PV) to the preliminary latching position (V), wherein an actuator is provided, which is signal-coupled and/or movement-coupled to the locking mechanism of the lock for fully unlocking the lock , wherein the detection unit is signal-coupled to the actuator , wherein upon detection of an object (O) in the detection region (5.1) the actuator automatically fully unlocks the locking mechanism and opens the lock .
Distance control system for motor vehicles , having a sensor for measuring the distance (d) to a preceding vehicle , a distance controller for calculating control interventions in the drive and/or braking system of the driver's own vehicle in order to control the distance to a setpoint distance (d soll ), wherein a detuning parameter (m) which determines the strength of the reaction of the distance controller to control deviations can be set in the distance controller , and having a jam detection module , characterized by a detuning controller which, if the jam detection module detects a traffic jam, reacts to the frequency (n) of control interventions, the strength of which lies above a certain minimum strength, and which, depending on said frequency (n), outputs a detuning parameter (m) to the distance controller and, with the detuning parameter (m) as a manipulated variable, controls the frequency (n) of control interventions, the strength of which lies above a certain minimum strength, to a setpoint frequency that is adapted to the traffic situation.
A sensing system for determining the location of an object which comprises a magnetic tag , the sensing system comprising selection coils (1201-1206) and interrogation coils , wherein: the selection coils are arranged to generate a spatially-varying DC magnetic field having a strength approximately equal to the strength whereby the magnetisation of the tag saturates; at least some of the interrogation coils are arranged to generate one or more AC magnetic fields; and at least some of the interrogation coils are arranged to receive even harmonics of the AC magnetic fields, from which the location of the tag is determined in use. the selection coils are arranged to generate a spatially-varying DC magnetic field having a strength approximately equal to the strength whereby the magnetisation of the tag saturates; at least some of the interrogation coils are arranged to generate one or more AC magnetic fields; and at least some of the interrogation coils are arranged to receive even harmonics of the AC magnetic fields, from which the location of the tag is determined in use.
A single-crystal single cerium oxide nanoparticle of formula (I): NP-(C) (I) , wherein NP is a single-crystal single cerium oxide nanoparticle with a crystal diameter from 3.0 to 5.0 nm, measured with transmission electron microscopy and X-Ray diffraction, and (C) is a coating of citrate molecules adsorbed on the NP, for use in the treatment of a disorder or disease of the posterior segment of the eye, wherein the treatment comprises administration of a topical ophthalmic dose of single-crystal single cerium oxide nanoparticles of formula (I). NP is a single-crystal single cerium oxide nanoparticle with a crystal diameter from 3.0 to 5.0 nm, measured with transmission electron microscopy and X-Ray diffraction, and (C) is a coating of citrate molecules adsorbed on the NP, for use in the treatment of a disorder or disease of the posterior segment of the eye, wherein the treatment comprises administration of a topical ophthalmic dose of single-crystal single cerium oxide nanoparticles of formula (I).
Antenna pane at least comprising: - an inner pane having an interior-side surface (IV), - an antenna structure made of an electrically conductive paste printed and fired on the interior-side surface (IV) of the inner pane , - a dielectric carrier element that is connected to the interior-side surface (IV) of the inner pane via an exterior-side surface (V) and has an electrically conductive base plate on an interior-side surface (VI), wherein - the base plate is arranged at least in the region of the orthogonal projection of the antenna structure relative to the inner pane characterized in that - the antenna structure is connected electrically conductively, preferably galvanically, to a signal line of a coplanar strip conductor , and the strip conductor is guided around the side edge of the carrier element on its interior-side surface (VI) and the shield of the strip conductor is electrically, preferably galvanically, connected to the base plate . - an inner pane having an interior-side surface (IV), - an antenna structure made of an electrically conductive paste printed and fired on the interior-side surface (IV) of the inner pane , - a dielectric carrier element that is connected to the interior-side surface (IV) of the inner pane via an exterior-side surface (V) and has an electrically conductive base plate on an interior-side surface (VI), wherein - the base plate is arranged at least in the region of the orthogonal projection of the antenna structure relative to the inner pane characterized in that - the antenna structure is connected electrically conductively, preferably galvanically, to a signal line of a coplanar strip conductor , and the strip conductor is guided around the side edge of the carrier element on its interior-side surface (VI) and the shield of the strip conductor is electrically, preferably galvanically, connected to the base plate .
A medical container unit for designing and manufacturing a patient-specific implant, comprising a plurality of container subunits each of which forms a sector , characterized in that a sector of a container subunit is equipped with a means for designing the implant in the form of a design unit comprising a computer including drawing software as well as with a cleaning and/or packaging unit , and further sector of a further container subunit is equipped with at least one means for machine manufacturing an implant in the form of a manufacturing unit , and wherein each container subunit is formed by self-supporting partial substructures on at least two sides.
A method for producing paper comprising a step of adding a polymer having a polyalkylene oxide moiety to papermaking process water containing a suspended solid containing a papermaking raw material and unfixed starch, wherein a concentration of the suspended solid contained in the papermaking process water is 100 mg/L or more, a concentration of the unfixed starch contained in the papermaking process water is 10 mg/L or more, and a salt viscosity of the polymer measured by the following method is 3 mPa·s or more and 500 mPa·s or less, wherein the viscosity is measured as the viscosity of an aqueous solution containing 4% by weight of common salt and 0.5% by weight of the polymer under the conditions of 25°C and a rotor rotating speed of 60 rpm, wherein the viscosity measurement method is based on JIS K 7117-2. wherein a concentration of the suspended solid contained in the papermaking process water is 100 mg/L or more, a concentration of the unfixed starch contained in the papermaking process water is 10 mg/L or more, and a salt viscosity of the polymer measured by the following method is 3 mPa·s or more and 500 mPa·s or less, wherein the viscosity is measured as the viscosity of an aqueous solution containing 4% by weight of common salt and 0.5% by weight of the polymer under the conditions of 25°C and a rotor rotating speed of 60 rpm, wherein the viscosity measurement method is based on JIS K 7117-2.
A communication method in a wireless local area network, the method comprising: receiving, by a first station, STA, a probe request frame including a receiving address, RA, field, wherein the first STA and a second STA are in a multiple basic service set identifier, BSSID, set; and in response to the RA field of the probe request frame including an individual address that is a media access control, MAC, address of the second STA, determining, by the first STA, that the first STA is allowed to respond to the probe request frame for that the first STA and the second STA are in the multiple BSSID set; wherein the first STA is a first access point, AP, of a transmitted BSSID in the multiple BSSID set, and the second STA is a second AP of a non-transmitted BSSID in the multiple BSSID set. receiving, by a first station, STA, a probe request frame including a receiving address, RA, field, wherein the first STA and a second STA are in a multiple basic service set identifier, BSSID, set; and in response to the RA field of the probe request frame including an individual address that is a media access control, MAC, address of the second STA, determining, by the first STA, that the first STA is allowed to respond to the probe request frame for that the first STA and the second STA are in the multiple BSSID set; wherein the first STA is a first access point, AP, of a transmitted BSSID in the multiple BSSID set, and the second STA is a second AP of a non-transmitted BSSID in the multiple BSSID set.
A method of configuring a network node in a wireless telecommunications network to use a secondary cell for dual connectivity communication, said method comprising: determining at least one reserved RACH preamble signalled to said network node by said secondary cell for use by dual connectivity capable user equipment ; identifying user equipment meeting criteria for implementation of dual connectivity communication with said secondary cell; and communicating an allocation of said at least one reserved RACH preamble for use by dual connectivity capable user equipment to said identified user equipment . determining at least one reserved RACH preamble signalled to said network node by said secondary cell for use by dual connectivity capable user equipment ; identifying user equipment meeting criteria for implementation of dual connectivity communication with said secondary cell; and communicating an allocation of said at least one reserved RACH preamble for use by dual connectivity capable user equipment to said identified user equipment .
Drive of a waterbound means of transport, such as a submarine or a ship , wherein the drive has an electrical machine , a first coolant pump , a second coolant pump , a first coolant circuit and a second coolant circuit , wherein the first coolant pump or the second coolant pump can be coupled to the first coolant circuit and to the second coolant circuit , wherein the drive comprises a first coolant pump supply and a second coolant pump supply , characterised in that the first coolant pump can be operated both with the first coolant pump supply and also with the second coolant pump supply .
A system for mitigating radio frequency "RF" interference from an adjacent antenna , comprising: a multiple patch antenna array comprising a multiplicity of patch antenna elements , the multiple patch antenna array being positioned relative to an interfering antenna such that RF transmission signals from the interfering antenna cause interference with receiving RF signals by the multiple patch antenna array; an auxiliary antenna positioned relative to the multiple patch antenna array; wherein the auxiliary antenna comprises a monopole antenna and wherein the monopole antenna is positioned between the multiple patch antenna array and the interfering antenna about one wavelength from a center of the multiple patch antenna array, and a device to generate a spatial null in a direction to the interfering antenna from the multiple patch antenna array in response to a first signal from the auxiliary antenna and a second signal from the multiple patch antenna array, the first signal and the second signal being generated in response to radiated electromagnetic fields from the interfering antenna being received by the auxiliary antenna and the multiple patch antenna array, wherein the spatial null permits simultaneous operation of the multiple patch antenna array and the interfering antenna. a multiple patch antenna array comprising a multiplicity of patch antenna elements , the multiple patch antenna array being positioned relative to an interfering antenna such that RF transmission signals from the interfering antenna cause interference with receiving RF signals by the multiple patch antenna array; an auxiliary antenna positioned relative to the multiple patch antenna array; wherein the auxiliary antenna comprises a monopole antenna and wherein the monopole antenna is positioned between the multiple patch antenna array and the interfering antenna about one wavelength from a center of the multiple patch antenna array, and a device to generate a spatial null in a direction to the interfering antenna from the multiple patch antenna array in response to a first signal from the auxiliary antenna and a second signal from the multiple patch antenna array, the first signal and the second signal being generated in response to radiated electromagnetic fields from the interfering antenna being received by the auxiliary antenna and the multiple patch antenna array, wherein the spatial null permits simultaneous operation of the multiple patch antenna array and the interfering antenna.