mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting a Sounding Reference Signal, SRS, by a user equipment , UE, in a wireless communication system, comprising: receiving (S1510), from a base station, a configuration related to at least one SRS resource set for transmitting a SRS, wherein each of the at least one SRS resource set includes one or more SRS resources; receiving first information related to first quasi co-location, QCL, relations between the SRS and a reference signal for QCL relation , via radio resource control, RRC, signaling, wherein the first QCL relations is configured for each of the one or more SRS resources; the method being characterized in that : a type of the SRS is a semi-persistent SRS, and by further comprising: receiving (S1520), from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; wherein the first information is updated to the second information; and transmitting (S1530), to the base station, the semi-persistent SRS using the one or more specific SRS resources, based on the control information and the second information. receiving (S1510), from a base station, a configuration related to at least one SRS resource set for transmitting a SRS, wherein each of the at least one SRS resource set includes one or more SRS resources; receiving first information related to first quasi co-location, QCL, relations between the SRS and a reference signal for QCL relation , via radio resource control, RRC, signaling, wherein the first QCL relations is configured for each of the one or more SRS resources; the method being characterized in that : a type of the SRS is a semi-persistent SRS, and by further comprising: receiving (S1520), from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; a type of the SRS is a semi-persistent SRS, and by further comprising: receiving (S1520), from the base station, control information for activating transmission of the semi-persistent SRS in one or more specific SRS resources among the at least one SRS resource set; and receiving, from the base station, second information related to second QCL relations, via medium access control, MAC, signaling; wherein the first information is updated to the second information; and transmitting (S1530), to the base station, the semi-persistent SRS using the one or more specific SRS resources, based on the control information and the second information.
A communication system comprising a communication device for mounting to an infrastructure , and a remote communication device , the communication device being configured for communication with the remote communication device via a directive antenna main lobe , the communication device comprising a sensor module configured to measure a movement of the communication device relative to a reference orientation, and to provide data of said measurement of movement on an output port , wherein the data comprises an indication of the mechanical stability of the infrastructure, the communication device further comprising a message generation module connected to the output port and configured to generate and transmit a movement report message to the remote communication device , the movement report message comprising information related to a measured movement of the communication device relative to the reference orientation.
A solidified liquid surfactant composition comprising: a liquid anionic surfactant which is sodium lauryl ether sulfate; a solid binder comprising a PEG having a melting point of at least 40 °C; wherein the solid binder and the liquid surfactant are in a ratio of between 4:1 to 1:60 by actives; wherein the composition is a powder, and the liquid surfactant is solidified in the composition, and wherein the solidified surfactant composition has less than 5 wt-% water. a liquid anionic surfactant which is sodium lauryl ether sulfate; a solid binder comprising a PEG having a melting point of at least 40 °C; wherein the solid binder and the liquid surfactant are in a ratio of between 4:1 to 1:60 by actives; wherein the composition is a powder, and the liquid surfactant is solidified in the composition, and wherein the solidified surfactant composition has less than 5 wt-% water.
A mechanical device for transmitting a rotational movement about a so-called main axis of rotation from a first segment to a second segment of a robot, said device comprising: - a first assembly (102;400), provided to be attached to said first segment, - a second assembly (104;500), provided to be attached to said second segment, - a drive means (108;404) between said assemblies (102;400,104;500); wherein, on the side of one of said assemblies (104;500), said drive means (108;404) is connected to said assembly (104;500) by a connecting interface (110;506), elastically rotatable about a so-called secondary axis of rotation (112;505), fixed with respect to said assembly (104;500), allowing rotation of said drive means (108;404) with respect to said assembly (104;500), characterized in that the device comprises, on the side of the same assembly (102;400,104;500), two connecting interfaces (110;506), cooperating with the same return mechanism elastically opposing the rotation of each connecting interface (110;506). - a first assembly (102;400), provided to be attached to said first segment, - a second assembly (104;500), provided to be attached to said second segment, - a drive means (108;404) between said assemblies (102;400,104;500);
Electronic switch having - a semiconductor switch , - a first consumer-side terminal , - a first source-side terminal and a second source-side terminal , wherein the semiconductor switch is arranged between the first source-side terminal and the first consumer-side terminal , wherein a switch is arranged between the first consumer-side terminal and the second source-side terminal , wherein the semiconductor switch is embodied such that it irreversibly transitions into the opened state due to the effect of a thermal overload inside the semiconductor switch and an associated modification of the semiconductor switch , wherein the switch is configured to generate the thermal overload by way of closing the switch and the short-circuit current that forms as a result, characterised in that the switch is embodied as a thyristor. - a semiconductor switch , - a first consumer-side terminal , - a first source-side terminal and a second source-side terminal ,
A multi-directional input device, comprising: a case having a bottom plate ; a pair of upper and lower arms supported to be movable in two orthogonal directions in the case , the pair of upper and lower arms each having an elongated hole extending in a direction orthogonal to a moving direction; an operation shaft that is rotatable in a state of penetrating each elongated hole ; an actuating member that is supported to be movable in an axial direction of the operation shaft at a lower end of the operation shaft projecting downward of the lower arm , and is provided with a downward convex spherical trapezoidal portion whose diameter decreases downward; a compression coil spring that is provided between the operation shaft and the actuating member , and presses the downward convex spherical trapezoidal portion against the bottom plate to return the operation shaft to a neutral state; and a plurality of electric components operated via each arm by rotation of the operation shaft , wherein the actuating member is supported at a lower end of the operation shaft projecting downward of the lower arm in a state of reducing rotation around an axis of the operation shaft , and is provided with a protrusion projecting radially outward from an upper end of the downward convex spherical trapezoidal portion , and the protrusion is inserted to be movable vertically in a guide groove that extends in a vertical direction on an inner wall of the case , so that rotation around an axis of the operation shaft of the actuating member is reduced. a case having a bottom plate ; a pair of upper and lower arms supported to be movable in two orthogonal directions in the case , the pair of upper and lower arms each having an elongated hole extending in a direction orthogonal to a moving direction; an operation shaft that is rotatable in a state of penetrating each elongated hole ; an actuating member that is supported to be movable in an axial direction of the operation shaft at a lower end of the operation shaft projecting downward of the lower arm , and is provided with a downward convex spherical trapezoidal portion whose diameter decreases downward; a compression coil spring that is provided between the operation shaft and the actuating member , and presses the downward convex spherical trapezoidal portion against the bottom plate to return the operation shaft to a neutral state; and a plurality of electric components operated via each arm by rotation of the operation shaft , wherein the actuating member is supported at a lower end of the operation shaft projecting downward of the lower arm in a state of reducing rotation around an axis of the operation shaft , and is provided with a protrusion projecting radially outward from an upper end of the downward convex spherical trapezoidal portion , and the protrusion is inserted to be movable vertically in a guide groove that extends in a vertical direction on an inner wall of the case , so that rotation around an axis of the operation shaft of the actuating member is reduced.
A golf club head comprising: a face portion including a ball striking surface; and a plate member connected to a back surface located on a back side of the face portion, a metal part of metal material being arranged on at least any one of a toe side and a heel side of the face portion and being arranged so as not to planarly overlap a striking point (HP) of the face portion , and the metal part comprising a first metal portion provided on the toe portion side, a second metal portion being provided on the heel portion side connected to each other with third metal portion therebetween, characterized in that the plate member includes a resin plate and the metal material of which at least a part of is nipped by the resin plate and buried into it, and wherein the resin plate is made of urethane resin, wherein the first metal portion and the second metal portion are at least partially exposed from the resin plate . a face portion including a ball striking surface; and a plate member connected to a back surface located on a back side of the face portion, a metal part of metal material being arranged on at least any one of a toe side and a heel side of the face portion and being arranged so as not to planarly overlap a striking point (HP) of the face portion , and the metal part comprising a first metal portion provided on the toe portion side, a second metal portion being provided on the heel portion side connected to each other with third metal portion therebetween,
A control method of a refrigerator, the refrigerator comprising an ice tray receiving water to generate ices, a motor capable of being rotated in a forward or reverse direction, an ejector including a rotary shaft and rotating the ices made in the ice tray to discharge the ices from the ice tray , the ejector rotated by the motor axially connected to the rotary shaft , and a protrusion pin protruded in a radius direction of the rotary shaft to adjoin the ices, and a heater selectively supplying heat to the ice tray , and a door switching sensor sensing opening or closing of a storage compartment door , the storage compartment door being provided with the ejector , comprising: a first step (S200) of starting to rotate the ejector ; a second step (S210) of checking whether the storage compartment door is closed; and a third step of rotating (S250) the ejector once if the storage compartment door is closed at the second step, or rotating the ejector twice if the storage compartment door is not closed. a first step (S200) of starting to rotate the ejector ; a second step (S210) of checking whether the storage compartment door is closed; and a third step of rotating (S250) the ejector once if the storage compartment door is closed at the second step, or rotating the ejector twice if the storage compartment door is not closed.
An illumination unit for a motor-vehicle headlamp for creating a light bundle with cut-off line, wherein the illumination unit comprises: - at least one light source , - at least one collimator , - one light source in each case for each collimator , - an exit lens with an outer surface , - a focal-line region , which is arranged between the at least one collimator and the exit lens , wherein the at least one collimator aligns the light beams (S1) fed into the collimator by the light source assigned to the collimator to form a light bundle of light beams (S2), and wherein light beams (S2) of the light bundle exiting from the at least one collimator make it into the focal-line region , and wherein the light beams (S2) exiting from the at least one collimator are deflected at least in the vertical direction (V) by the exit lens in such a manner that the light beams (S3) exiting from the exit lens form a light distribution with a cut-off line, wherein the cut-off line is created as an image of the focal line (FL) or the focal-line region by the exit lens , and wherein the at least one collimator , the exit lens and the focal-line region are formed in one piece from a transparent body , and wherein the light beams (S1, S2) propagating in the transparent body are totally internally reflected at least at one boundary surface of the at least one collimator , wherein the at least one collimator is constructed and arranged in such a manner that light beams (S2) exiting from the at least one collimator are bundled in the vertical direction onto a focal line (FL), which lies in the focal-line region and runs in a straight line, characterized in that the outer surface of the exit lens is formed by a groove-like structure in a smooth base surface (BF), wherein the grooves forming the groove-like structure run in a substantially vertical direction, and wherein in each case two grooves lying next to one another in the horizontal direction are separated by an elevation, which in particular runs substantially vertically and extends over the entire vertical extent of the grooves , wherein the groove depth changes, linearly in particular, from a certain initial value A 0 at an upper edge of the exit lens to a value of zero at a lower edge of the exit lens, wherein the at least one collimator , in particular at least one boundary surface and/or a central coupling region of the at least one collimator , is or are constructed in such a manner that the light beams exiting from the at least one collimator run parallel to one another in the horizontal direction. - at least one light source , - at least one collimator , - one light source in each case for each collimator , - an exit lens with an outer surface , - a focal-line region , which is arranged between the at least one collimator and the exit lens ,
Method for producing a glass product composed of UV absorbing glass, comprising the steps of: a) producing a UV protection glass melt containing: SiO 2 55 - 75 % by weight Na 2 O 0 - 18 % by weight CaO 0 - 10 % by weight K 2 O 5 - 15 % by weight B 2 O 3 1 - 7 % by weight CdS 0.05 - 0.5 % by weight ZnS 0.1 - 0.4 % by weight ZnO 4.5 - 12 % by weight b) forming the glass product , c) tempering the glass product for a time t at a temperature T, where: 540°C ≤ T ≤ 750°C and 1h ≤ t ≤ 50h. a) producing a UV protection glass melt containing: SiO 2 55 - 75 % by weight Na 2 O 0 - 18 % by weight CaO 0 - 10 % by weight K 2 O 5 - 15 % by weight B 2 O 3 1 - 7 % by weight CdS 0.05 - 0.5 % by weight ZnS 0.1 - 0.4 % by weight ZnO 4.5 - 12 % by weight b) forming the glass product , c) tempering the glass product for a time t at a temperature T, where: 540°C ≤ T ≤ 750°C and 1h ≤ t ≤ 50h. 540°C ≤ T ≤ 750°C and 1h ≤ t ≤ 50h.
A method for sorting filter options for an image and applied in a user terminal, comprising: determining (S11) a usage count of each filter option preset in the user terminal; and adjusting (S12) a sorting of each filter option in a list of filter options according to the usage count of each filter option, characterized in that : determining (S11) the usage count of each filter option preset in the user terminal comprises: determining (S11) the usage count of each filter option preset in the user terminal in each shooting scene; and adjusting (S12) the sorting of each filter option in the list of filter options according to the usage count of each filter option comprises: determining (S52) a scene of a current image to be taken by the user; adjusting (S53) a current list of filter options to be a list of filter options applicable to the scene of the current image to be taken by the user, based on the usage count of each filter option preset in the user terminal in each shooting scene. determining (S11) a usage count of each filter option preset in the user terminal; and adjusting (S12) a sorting of each filter option in a list of filter options according to the usage count of each filter option, characterized in that : determining (S11) the usage count of each filter option preset in the user terminal comprises: determining (S11) the usage count of each filter option preset in the user terminal in each shooting scene; and adjusting (S12) the sorting of each filter option in the list of filter options according to the usage count of each filter option comprises: determining (S52) a scene of a current image to be taken by the user; adjusting (S53) a current list of filter options to be a list of filter options applicable to the scene of the current image to be taken by the user, based on the usage count of each filter option preset in the user terminal in each shooting scene. determining (S11) the usage count of each filter option preset in the user terminal comprises: determining (S11) the usage count of each filter option preset in the user terminal in each shooting scene; and adjusting (S12) the sorting of each filter option in the list of filter options according to the usage count of each filter option comprises: determining (S52) a scene of a current image to be taken by the user; adjusting (S53) a current list of filter options to be a list of filter options applicable to the scene of the current image to be taken by the user, based on the usage count of each filter option preset in the user terminal in each shooting scene. determining (S52) a scene of a current image to be taken by the user; adjusting (S53) a current list of filter options to be a list of filter options applicable to the scene of the current image to be taken by the user, based on the usage count of each filter option preset in the user terminal in each shooting scene.
A method of addressing a data packet in a mesh network , the method comprising: receiving , at a router device , a packet to deliver to a network destination, wherein the network destination is an Endpoint Identifier, EID, associated with a mesh network device ; determining if the network destination is a destination on the mesh network ; sending an address query including the EID over the mesh network , using multicast addressing, to find a Routing Locator, RLOC, associated with the network destination; and forwarding the packet, using the RLOC to provide a routable network address for a destination address for the packet. receiving , at a router device , a packet to deliver to a network destination, wherein the network destination is an Endpoint Identifier, EID, associated with a mesh network device ; determining if the network destination is a destination on the mesh network ; sending an address query including the EID over the mesh network , using multicast addressing, to find a Routing Locator, RLOC, associated with the network destination; and forwarding the packet, using the RLOC to provide a routable network address for a destination address for the packet.
A method of a base station to transmit user packets in a wireless communication system, the method comprising: receiving a plurality of user packets , during a multicast channel scheduling period, MSP, respectively including information on a time stamp assigned by a broadcast/multicast service centre, BM-SC , from the BM-SC; and transmitting the plurality of user packets to a terminal on a physical multicast channel based on the information on the time stamp by generating multicast channel scheduling information, MSI, wherein the time stamps of the plurality of user packets are assigned at an interval set to a value less than a multimedia broadcast multicast services, MBMS, scheduling period, and a first user packet among the plurality of user packets is transmitted before the MSP elapses. receiving a plurality of user packets , during a multicast channel scheduling period, MSP, respectively including information on a time stamp assigned by a broadcast/multicast service centre, BM-SC , from the BM-SC; and transmitting the plurality of user packets to a terminal on a physical multicast channel based on the information on the time stamp by generating multicast channel scheduling information, MSI, wherein the time stamps of the plurality of user packets are assigned at an interval set to a value less than a multimedia broadcast multicast services, MBMS, scheduling period, and a first user packet among the plurality of user packets is transmitted before the MSP elapses.