mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for using a slicer user interface element to filter tabular data, comprising: receiving from a user a selection of tabular data that comprises one or more columns; for each selected column creating a slicer and creating slicer elements for each unique value in each of the selected columns; displaying the slicer elements for the one or more slicers; receiving a touch gesture from a user to select a slicer element, the touch gesture comprising dragging an edge of the slicer element a predetermined distance; filtering the tabular data based on the selection of the slicer element updating a display based on the selection; and updating a display of the slicer elements in response to the selection of the slicer element. receiving from a user a selection of tabular data that comprises one or more columns; for each selected column creating a slicer and creating slicer elements for each unique value in each of the selected columns; displaying the slicer elements for the one or more slicers; receiving a touch gesture from a user to select a slicer element, the touch gesture comprising dragging an edge of the slicer element a predetermined distance; filtering the tabular data based on the selection of the slicer element updating a display based on the selection; and updating a display of the slicer elements in response to the selection of the slicer element.
Light module (16; 160) for a motor vehicle headlamp , comprising a printed circuit board which has a front side and a rear side and which has a DMD chip on its front side , the chip having a front side carrying a micromirror and a rear side opposite its front side , and comprising a central support element which has a front side and a rear side , the light module having a cooling element assembly and the central support element having a central support element window , and the printed circuit board being arranged with its front side facing the rear side of the central support element such that the front side of the DMD chip covers an opening of the support element window , the micromirrors being arranged so as to be visible through the opening of the support element window , and the printed circuit board having a printed circuit board window , the opening of which is completely or partially covered by the rear side of the DMD chip , and the cooling element assembly having a cooling plunger which is supported on the rear side of the DMD chip through the printed circuit board window , and the cooling element assembly being otherwise arranged facing the rear side of the printed circuit board , and the light module (16;160) having an elastically deformed resilient connecting element , characterized in that the resilient connecting element is a leaf spring and the leaf spring has at least one end on the cooling element assembly side and at least one end on the support element side, and is rigidly connected, at its end on the cooling element assembly side, to an end of the cooling element assembly arranged on the rear side of the printed circuit board and is rigidly connected, at its end on the support element side, to the support element , and the printed circuit board being rigidly connected to the support element , the leaf spring being connected, at its end on the cooling element assembly side, in a frictional and/or interlocking manner to a remaining part of the cooling element assembly arranged on the rear side of the printed circuit board , the central support element having screw bosses which protrude from the rear side of the central support element and which have, on their ends facing away from the rear side , receptacles for the ends on the support element side of the leaf spring , the connection being made by interlocking elements of the remaining part of the cooling element assembly , which prevent the end on the cooling element assembly side of the leaf spring from moving toward the printed circuit board .
System (104; 405) for processing organic material with insect larvae, comprising: a rail arrangement which has a gradient, a plurality of containers (300, 302, 304; 412) which are arranged so as to be movable on the rail arrangement , and a shell which surrounds the rail arrangement and the plurality of containers (300, 302, 304; 412), the system (140; 405) being designed such that the containers (300, 302, 304; 412) move in a manner assisted by the gradient characterized in that the system comprises a turbine wheel which is drivable by a fluid which flows in the shell, and a generator which is driven by the turbine wheel, the turbine wheel and the generator being operable as a fan and drive motor. a rail arrangement which has a gradient, a plurality of containers (300, 302, 304; 412) which are arranged so as to be movable on the rail arrangement , and a shell which surrounds the rail arrangement and the plurality of containers (300, 302, 304; 412), the system (140; 405) being designed such that the containers (300, 302, 304; 412) move in a manner assisted by the gradient characterized in that the system comprises a turbine wheel which is drivable by a fluid which flows in the shell, and a generator which is driven by the turbine wheel, the turbine wheel and the generator being operable as a fan and drive motor.
A communication method on an unlicensed frequency band, comprising: receiving, by a terminal device, downlink control information from a network device, wherein the downlink control information is within a first time unit; determining (S302), by the terminal device based on a time at which the downlink control information is sent, a time window for sending uplink information; and sending (S303), by the terminal device, the uplink information within the time window, wherein a start moment T1 of the time window is within the first time unit or a second time unit, and the second time unit is a next time unit of the first time unit; and characterized in that : the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2. receiving, by a terminal device, downlink control information from a network device, wherein the downlink control information is within a first time unit; determining (S302), by the terminal device based on a time at which the downlink control information is sent, a time window for sending uplink information; and sending (S303), by the terminal device, the uplink information within the time window, wherein a start moment T1 of the time window is within the first time unit or a second time unit, and the second time unit is a next time unit of the first time unit; and characterized in that : the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2. the first time unit is comprised in a candidate time unit set, the candidate time unit set is at least one of a plurality of consecutive time units, and the candidate time unit sets are at an equal interval in the plurality of consecutive time units; an end moment of the downlink control information is T2, and the method further comprises: skipping receiving, by the terminal device, downlink user data within a time interval between T1 and T2.
A display device, comprising: a light-transmitting substrate; a pad disposed on the light-transmitting substrate; and an electrode layer comprising a mesh configuration formed on the light-transmitting substrate and electrically connected to the pad , wherein the electrode layer comprises: a first region (120b1) spaced apart from the pad ; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad , wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), characterized in that the pad comprises a mesh configuration and is electrically connected to the electrode layer , and wherein the density of the mesh configuration of the pad is equal to one of the first region (120b1) or the second region (120b2). a light-transmitting substrate; a pad disposed on the light-transmitting substrate; and an electrode layer comprising a mesh configuration formed on the light-transmitting substrate and electrically connected to the pad , wherein the electrode layer comprises: a first region (120b1) spaced apart from the pad ; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad , wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), a first region (120b1) spaced apart from the pad ; and a second region (120b2) connecting the pad to the first region (120b1), wherein a density of the mesh configuration of the second region (120b2) is higher than a density of the mesh configuration of the first region (120b1), wherein a length of a side of the pad connected to the second region (120b2) is substantially equal to a length of a first side of the second region (120b2) connected to the pad , wherein a second side of the second region (120b2) is connected to the first region (120b1) and the first side of the second region (120b2) is longer than the second side of the second region (120b2), characterized in that the pad comprises a mesh configuration and is electrically connected to the electrode layer , and wherein the density of the mesh configuration of the pad is equal to one of the first region (120b1) or the second region (120b2).
A method of wireless communication, the method comprising: identifying, by a user equipment, UE , an aggressor base station that is interfering with a downlink signal from a serving base station ; receiving, by the UE from the serving base station , a signal indicating first reporting parameters of the aggressor base station for transmitting a first channel state information, CSI, report to the aggressor base station and second reporting parameters of the serving base station for transmitting a second CSI report to the serving base station , wherein the first reporting parameters of the aggressor base station are different from the second reporting parameters of the serving base station ; transmitting, by the UE , the first CSI report to the aggressor base station based at least in part on the first reporting parameters of the aggressor base station ; and transmitting, by the UE , the second CSI report to the serving base station based at least in part on the second reporting parameters of the serving base station . identifying, by a user equipment, UE , an aggressor base station that is interfering with a downlink signal from a serving base station ; receiving, by the UE from the serving base station , a signal indicating first reporting parameters of the aggressor base station for transmitting a first channel state information, CSI, report to the aggressor base station and second reporting parameters of the serving base station for transmitting a second CSI report to the serving base station , wherein the first reporting parameters of the aggressor base station are different from the second reporting parameters of the serving base station ; transmitting, by the UE , the first CSI report to the aggressor base station based at least in part on the first reporting parameters of the aggressor base station ; and transmitting, by the UE , the second CSI report to the serving base station based at least in part on the second reporting parameters of the serving base station .
A lighting system comprising a first lighting unit and a second lighting unit : the first lighting unit comprising: - one or more light sources , - a memory , - a communication unit comprising a first communication module configured to communicate via a first wireless communication technology, and a second communication module configured to communicate via a second wireless communication technology, and - a processor configured to receive, via the first communication module , a first lighting control command indicative of one or more first light settings, store the first lighting control command in the memory , receive, via the second communication module , a second lighting control command indicative of one or more second light settings, and control the one or more light sources according to the first lighting control command upon receiving the second lighting control command, the second lighting unit comprising: - one or more light second sources - a second communication unit configured to communicate via the second communication technology, and - a second processor configured to receive, via the second communication unit , the second lighting control command , and to control the one or more second light sources according to the second lighting control command upon receiving the second lighting control command . - one or more light sources , - a memory , - a communication unit comprising a first communication module configured to communicate via a first wireless communication technology, and a second communication module configured to communicate via a second wireless communication technology, and - a processor configured to receive, via the first communication module , a first lighting control command indicative of one or more first light settings, store the first lighting control command in the memory , receive, via the second communication module , a second lighting control command indicative of one or more second light settings, and control the one or more light sources according to the first lighting control command upon receiving the second lighting control command, the second lighting unit comprising: - one or more light second sources - a second communication unit configured to communicate via the second communication technology, and - a second processor configured to receive, via the second communication unit , the second lighting control command , and to control the one or more second light sources according to the second lighting control command upon receiving the second lighting control command .
Device for manually lifting a load with a lever for a cart, suitcase and the like, facilitating the ascent and descent of stairs and various obstacles, the device comprises a first part comprising a frame integral with wheels , the wheels and handles are fixed on the frame , characterized in that it comprises a second part comprising a load support integral with wheels , the wheels and a load are permanently mounted on the load support , the second part being displaceable with respect to the first part by the action of a telescopic lever arm for climbing a two-phase staircase step, the telescopic lever arm being fixed on the handles with a joint , a second joint connecting the telescopic lever arm with a transmission , which in turn is connected with a third joint to the load carrier of the second part.
A method performed by a network device for enabling relayed communication in at least one direction between a first communication unit and a second communication unit in a wireless communication system, wherein the network device is included in the first communication unit , the method comprising: - the network device specifying (S1) a relay unit for the relayed communication; - the network device determining (S2) information for scheduling and/or configuring a first transmission of a data frame from the second communication unit to the specified relay unit and a second transmission of the data frame from the specified relay unit to the first communication unit; - the network device generating (S3) a trigger frame including the information for scheduling and/or configuring the first transmission and the second transmission; characterised by : transmitting the trigger frame in a direct transmission to the second communication unit. - the network device specifying (S1) a relay unit for the relayed communication; - the network device determining (S2) information for scheduling and/or configuring a first transmission of a data frame from the second communication unit to the specified relay unit and a second transmission of the data frame from the specified relay unit to the first communication unit; - the network device generating (S3) a trigger frame including the information for scheduling and/or configuring the first transmission and the second transmission;
An apparatus for monitoring blood pressure of a user, the apparatus comprising: a clip having a base with two side members adapted to releasably receive a portion of a body of the user therebetween; an adjustable pressure pad mounted to one of said two side members spaced apart from the other of two side members by a separation distance; a magnetic field sensor mounted to one of said two side members; a magnet mounted to the other of said two side members opposite to said magnetic field sensor and spaced apart by said separation distance; a motor operably connected to said adjustable pressure pad; and wherein said separation distance is selectably adjustable by said motor. a clip having a base with two side members adapted to releasably receive a portion of a body of the user therebetween; an adjustable pressure pad mounted to one of said two side members spaced apart from the other of two side members by a separation distance; a magnetic field sensor mounted to one of said two side members; a magnet mounted to the other of said two side members opposite to said magnetic field sensor and spaced apart by said separation distance; a motor operably connected to said adjustable pressure pad; and wherein said separation distance is selectably adjustable by said motor.
Method for setting up a network , comprising a plurality of electronic detonators and a control unit which are interconnected via a bus system , each of the detonators having a communication module which is connected to the bus system for communication between the detonator and the control unit via the bus system , and, as part of the setting up of the network , as yet unidentified detonators being identified by the control unit , characterized in that a unique identifier (UID) is assigned to each of the detonators and in that , in the context of the identification of the detonators in the network , a bitwise bidirectional communication between the control unit and the detonators is carried out, - a first loop corresponding to the number of the unidentified detonators in the network being iteratively run through, a further detonator being identified after each run through of the first loop, and - a second loop corresponding to the number of the bits of the unique identifier (UID) of the detonators being iteratively run through in each iteration of the first loop, the as yet unidentified detonators transmitting one bit of their unique identifier (UID) and applying said bit to the bus in each iteration of the second loop, and a further bit of the unique identifier (UID) of a detonator being known after each iteration of the second loop of the control unit , access problems to the bus system being solved by bitwise arbitration which is carried out by each detonator by monitoring the level applied to the bus system bit by bit. - a first loop corresponding to the number of the unidentified detonators in the network being iteratively run through, a further detonator being identified after each run through of the first loop, and - a second loop corresponding to the number of the bits of the unique identifier (UID) of the detonators being iteratively run through in each iteration of the first loop, the as yet unidentified detonators transmitting one bit of their unique identifier (UID) and applying said bit to the bus in each iteration of the second loop, and a further bit of the unique identifier (UID) of a detonator being known after each iteration of the second loop of the control unit , access problems to the bus system being solved by bitwise arbitration which is carried out by each detonator by monitoring the level applied to the bus system bit by bit.
Refrigerator, in particular household refrigerator, with an internal space divided into at least one first storage chamber embodied as a chill compartment and an evaporator chamber having at least one evaporator and a fan (9-13) for driving air circulation between the storage chamber and the evaporator chamber , wherein the fan (9-13) is a radial fan, which is arranged on a through-hole below the evaporator of a wall which has an axis of rotation crossing the through-hole and which separates the evaporator chamber from a distributor chamber , the radial fan is arranged downstream of the evaporator in the direction of the forcibly circulated air, the distributor chamber is separated from the storage chamber by means of an intermediate wall having a number of openings and a motor of the fan (9-13) is mounted on the intermediate wall , wherein a depression which is open with respect to the distributor chamber is formed in the wall separating the evaporator chamber from the distributor chamber , into which depression an impeller of the fan (9-13) engages, a separating wall divides the internal space into a second storage chamber embodied as a normal refrigeration compartment via the separating wall and a region below the separating wall , which is divided by the wall into the first storage chamber and the evaporator chamber , and a passage between a shared door of the two compartments and the front edge of the separating wall connects the evaporator chamber to the second storage chamber , wherein a channel adjoining the passage on sides of the second storage chamber has an inlet in the vicinity of the ceiling in a region of the second storage chamber which faces away from the separating wall .
Reactive resin compositions comprising - (A) 92%-99.5% by weight of at least one reactive resin, and - (B) 0.5%-8% by weight of at least one silicone resin, composed of units of the formulae (Ia), (Ib), (VII) and (Id) where R 17 is identical or independently different monovalent substituted or unsubstituted organic radicals that bear or do not bear functional groups, an -OH or a hydrogen radical, with the conditions that - in (B) at least 20 mol% of the formula (Ia) or (Ib) or of a mixture of the two is present, - in (B) at most 50 mol% of the formula (Ib) is present, - alkoxy groups are present in (B) as R 17 to an extent of at least 5% by weight. - (A) 92%-99.5% by weight of at least one reactive resin, and - (B) 0.5%-8% by weight of at least one silicone resin, composed of units of the formulae (Ia), (Ib), (VII) and (Id) where R 17 is identical or independently different monovalent substituted or unsubstituted organic radicals that bear or do not bear functional groups, an -OH or a hydrogen radical, - in (B) at least 20 mol% of the formula (Ia) or (Ib) or of a mixture of the two is present, - in (B) at most 50 mol% of the formula (Ib) is present, - alkoxy groups are present in (B) as R 17 to an extent of at least 5% by weight.