mhurhangee/patent-ind-claim-en huggingface dataset:
A method, at a mobile device, of supporting location, comprising: receiving a first message from a location server comprising an offset parameter indicative of a difference in timing between transmission of a first Positioning Reference Signal, PRS, positioning occasion from a first eNodeB of a reference cell, and transmission of a second PRS positioning occasion from a second eNodeB of a neighboring cell; receiving, from the second eNodeB, a plurality of two or more PRS configurations for the neighboring cell; wherein the second PRS positioning occasion is a PRS positioning occasion for a first PRS configuration of the plurality of two or more PRS configurations for the neighboring cell, and wherein the first PRS configuration has a longest periodicity ( T PRS ) between consecutive PRS positioning occasions being equal or longer than a periodicity ( T PRS ) of the two or more PRS configurations for the neighboring cell; determining an expected timing of at least a third PRS positioning occasion for a second PRS configuration of the plurality of two or more PRS configurations transmitted by the second eNodeB for the neighboring cell based on the offset parameter; and measuring a Reference Signal Time Difference, RSTD, for the neighboring cell based at least in part on the expected timing. receiving a first message from a location server comprising an offset parameter indicative of a difference in timing between transmission of a first Positioning Reference Signal, PRS, positioning occasion from a first eNodeB of a reference cell, and transmission of a second PRS positioning occasion from a second eNodeB of a neighboring cell; transmission of a first Positioning Reference Signal, PRS, positioning occasion from a first eNodeB of a reference cell, and transmission of a second PRS positioning occasion from a second eNodeB of a neighboring cell; receiving, from the second eNodeB, a plurality of two or more PRS configurations for the neighboring cell; wherein the second PRS positioning occasion is a PRS positioning occasion for a first PRS configuration of the plurality of two or more PRS configurations for the neighboring cell, and wherein the first PRS configuration has a longest periodicity ( T PRS ) between consecutive PRS positioning occasions being equal or longer than a periodicity ( T PRS ) of the two or more PRS configurations for the neighboring cell; determining an expected timing of at least a third PRS positioning occasion for a second PRS configuration of the plurality of two or more PRS configurations transmitted by the second eNodeB for the neighboring cell based on the offset parameter; and measuring a Reference Signal Time Difference, RSTD, for the neighboring cell based at least in part on the expected timing.
A method for operating a driverless vehicle comprising a vehicle controller, the method comprising: receiving, at the driverless vehicle, sensor signals comprising sensor data from one or more sensors associated with the driverless vehicle, the sensor data related to operation of the driverless vehicle; receiving road network data from a road network data store, the road network data being based at least in part on a location of the driverless vehicle; determining, at the driverless vehicle, a driving corridor within which the driverless vehicle travels according to a trajectory, the driving corridor comprising virtual boundaries indicative of a dynamic object and being based at least in part on the sensor data and the road network data; causing the driverless vehicle to traverse a road network autonomously according to a path from a first geographic location to a second geographic location different than the first geographic location; determining that an event associated with the path has occurred; based at least in part on determining that the event has occurred, sending communication signals from the driverless vehicle to a teleoperations system , the communication signals comprising a request for guidance from the teleoperations system and one or more of a portion of sensor data and the road network data; receiving, at the driverless vehicle, teleoperations signals from the teleoperations system; and determining, by the controller of the driverless vehicle, a revised trajectory based at least in part on the teleoperations signals. receiving, at the driverless vehicle, sensor signals comprising sensor data from one or more sensors associated with the driverless vehicle, the sensor data related to operation of the driverless vehicle; receiving road network data from a road network data store, the road network data being based at least in part on a location of the driverless vehicle; determining, at the driverless vehicle, a driving corridor within which the driverless vehicle travels according to a trajectory, the driving corridor comprising virtual boundaries indicative of a dynamic object and being based at least in part on the sensor data and the road network data; causing the driverless vehicle to traverse a road network autonomously according to a path from a first geographic location to a second geographic location different than the first geographic location; determining that an event associated with the path has occurred; based at least in part on determining that the event has occurred, sending communication signals from the driverless vehicle to a teleoperations system , the communication signals comprising a request for guidance from the teleoperations system and one or more of a portion of sensor data and the road network data; receiving, at the driverless vehicle, teleoperations signals from the teleoperations system; and determining, by the controller of the driverless vehicle, a revised trajectory based at least in part on the teleoperations signals.
A method of generating, from a first thermal model describing the individual thermal behaviour of an electrical machine and a second thermal model describing the individual thermal behaviour of a device , a composite thermal model describing the thermal behaviour of a system comprising the electrical machine connected to the device , the method comprising: a) connecting at least one geometric entity of one of the first thermal model and the second thermal model to a plurality of geometric entities of the other one of the first thermal model and the second thermal model , each connection comprising at least one of a heat source and a thermal impedance, wherein the first thermal model and the second thermal model connected to each other form an initial composite thermal model, b) comparing measured temperatures with corresponding estimated temperatures obtained from the initial composite thermal model, and in case an estimated temperature deviates with more than a threshold value from a measured temperature, c) adjusting at least one of a thermal impedance and a heat source between a pair of geometric entities connected in step a). a) connecting at least one geometric entity of one of the first thermal model and the second thermal model to a plurality of geometric entities of the other one of the first thermal model and the second thermal model , each connection comprising at least one of a heat source and a thermal impedance, wherein the first thermal model and the second thermal model connected to each other form an initial composite thermal model, b) comparing measured temperatures with corresponding estimated temperatures obtained from the initial composite thermal model, and in case an estimated temperature deviates with more than a threshold value from a measured temperature, c) adjusting at least one of a thermal impedance and a heat source between a pair of geometric entities connected in step a).
A method of manufacturing a turf infill for an artificial turf, wherein the method comprises mixing natural fiber and rubber granulate to provide artificial turf infill, wherein the artificial turf infill comprises between 10% and 40% of the natural fiber by weight, wherein the natural fiber comprises any one of the following: hemp fiber, cotton fiber, burlap fiber, sisal fiber, elephant grass fiber, cellulose fiber, and combinations thereof, wherein the method further comprises: - providing an initial composition comprising the natural fiber and the rubber granulate, and a fluid binding agent comprising at least one type of polymer component; - mixing the initial composition, - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent into an initial coating of the granulate; - providing a subsequent composition comprising the natural fiber and the rubber granulate with the initial coating, and the fluid binding agent; - mixing the subsequent composition; and - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent into a subsequent coating of the granulate. - providing an initial composition comprising the natural fiber and the rubber granulate, and a fluid binding agent comprising at least one type of polymer component; - mixing the initial composition, - adding water and a catalyst to the initial composition during the mixing of the initial composition to cure the fluid binding agent into an initial coating of the granulate; - providing a subsequent composition comprising the natural fiber and the rubber granulate with the initial coating, and the fluid binding agent; - mixing the subsequent composition; and - adding water and the catalyst to the subsequent composition during the mixing of the subsequent composition to cure the fluid binding agent into a subsequent coating of the granulate.
An array substrate, comprising: a base substrate , and a gate line and a common electrode , a gate insulation layer , an active layer , and a data line , a source electrode and a drain electrode , sequentially arranged on the base substrate ; and a pixel electrode , wherein the gate line and the common electrode are provided in a same layer on the base substrate , the pixel electrode and the active layer are provided in a same layer on the gate insulation layer from a same metal-oxide semiconductor layer by a metallization process, the data line , the source electrode , and the drain electrode are provided in a same layer on the pixel electrode , the active layer , and the gate insulating layer , the common electrode comprises a portion parallel to the data line and a portion perpendicular to the data line, and the pixel electrode , the gate insulation film layer and the common electrode form a storage capacitor. the gate line and the common electrode are provided in a same layer on the base substrate , the pixel electrode and the active layer are provided in a same layer on the gate insulation layer from a same metal-oxide semiconductor layer by a metallization process, the data line , the source electrode , and the drain electrode are provided in a same layer on the pixel electrode , the active layer , and the gate insulating layer , the common electrode comprises a portion parallel to the data line and a portion perpendicular to the data line, and the pixel electrode , the gate insulation film layer and the common electrode form a storage capacitor.
A method for locating a test section of a pipe system comprising at least one pipe , the test section being located behind a surface, wherein the surface is selected from a wall, a ceiling, a floor, a surface belonging to a building, a surface of an outdoor wall and a surface of an outdoor floor covering, comprising: - providing an inlet into the pipe system and an outlet from the pipe system , - inserting, into the inlet , a plug having a flexible pulling means fastened thereto and displaceable in the pipe system , - generating a pressure gradient by pressurizing the region of the pipe system located between the inlet and the plug with a gaseous medium, and/or by generating a negative pressure in the region of the pipe system located between the plug and an outlet , whereby the plug is transported to the outlet and subsequently removed, - fastening a flexible electrical conductor capable of generating or receiving an electromagnetic field either to the part of the flexible pulling means located at the inlet , or to the part of the flexible pulling means located at the outlet or to the plug , - pulling the flexible electrical conductor via the flexible pulling means from the inlet in the direction of the outlet , if the flexible electrical conductor has been fastened to the part of the flexible pulling means located at the inlet , or from the outlet in the direction of the inlet , if the flexible electrical conductor has been fastened to the part of the flexible pulling means located at the outlet or to the plug , - detecting the test section of the pipe system across a surface by means of electromagnetic interaction of the flexible electrical conductor extending therein. - providing an inlet into the pipe system and an outlet from the pipe system , - inserting, into the inlet , a plug having a flexible pulling means fastened thereto and displaceable in the pipe system , - generating a pressure gradient by pressurizing the region of the pipe system located between the inlet and the plug with a gaseous medium, and/or by generating a negative pressure in the region of the pipe system located between the plug and an outlet , whereby the plug is transported to the outlet and subsequently removed, - fastening a flexible electrical conductor capable of generating or receiving an electromagnetic field either to the part of the flexible pulling means located at the inlet , or to the part of the flexible pulling means located at the outlet or to the plug , - pulling the flexible electrical conductor via the flexible pulling means from the inlet in the direction of the outlet , if the flexible electrical conductor has been fastened to the part of the flexible pulling means located at the inlet , or from the outlet in the direction of the inlet , if the flexible electrical conductor has been fastened to the part of the flexible pulling means located at the outlet or to the plug , - detecting the test section of the pipe system across a surface by means of electromagnetic interaction of the flexible electrical conductor extending therein.
A method for wireless communication of glucose data, the method comprising: generating glucose data indicative of the concentration of glucose in a host using a transcutaneous glucose sensor ; processing the generated glucose data using a sensor electronics module integral with, or releasably attachable to, the transcutaneous glucose sensor to generate sensor information; authenticating a display device configured to display, or process and display, sensor information transmitted by the sensor electronics module , for a first wireless connection by exchanging information related to authentication between the sensor electronics module and the display device ; upon authenticating the display device , the sensor electronics module periodically exchanging messages with the display device to maintain continuous connection over the first wireless connection; and the sensor electronics module transmitting encrypted sensor information to the display device during the time the first wireless connection is maintained. generating glucose data indicative of the concentration of glucose in a host using a transcutaneous glucose sensor ; processing the generated glucose data using a sensor electronics module integral with, or releasably attachable to, the transcutaneous glucose sensor to generate sensor information; authenticating a display device configured to display, or process and display, sensor information transmitted by the sensor electronics module , for a first wireless connection by exchanging information related to authentication between the sensor electronics module and the display device ; upon authenticating the display device , the sensor electronics module periodically exchanging messages with the display device to maintain continuous connection over the first wireless connection; and the sensor electronics module transmitting encrypted sensor information to the display device during the time the first wireless connection is maintained.
Medical temperature control apparatus with at least one housing , at least one fluid supply device by which a fluid is provided in the housing , at least one temperature control device arranged in the housing , which controls the temperature of the fluid flowing through the housing , at least one fluid outflow device by which the fluid is led out of the housing at a substantially predetermined temperature, and at least one pump device arranged in the housing which pressurizes the fluid flowing through the housing , wherein the at least one temperature control device comprises at least one first temperature control unit and at least one second temperature control unit , each comprising at least one thermoelectric element , in particular at least one Peltier element, at least one heat exchanger element through which fluid can flow for transferring heat to or from the fluid, and at least one heat sink , characterized in that the at least one heat sink of the at least one first temperature control unit and the at least one heat sink of the at least one second temperature control unit face one another, and that, preferably closed, cooling channels are formed by the heat sink of the first temperature control unit together with the heat sink of the second temperature control unit .
A multivalent immunogenic composition comprising polysaccharide-protein conjugates consisting of pneumococcal capsular polysaccharides from Streptococcus pneumoniae serotypes 1, 3, 4, 5, 6A, 6B, 7F, 9V, 14, 18C, 19A, 19F and 23F individually conjugated to CR-M 197 , comprising from 1 to 5 μg of each polysaccharide; from 20 to 100 μg/mL CRM 197 carrier protein; from 0.02 to 2 mg/mL of elemental aluminum in the form of aluminum phosphate; from 0.5 to 1.25% sodium chloride; from 0.002 to 0.2 % polysorbate 80; from 1 to 10 mM sodium succinate buffer at a pH from 4 to 7; and from 7 to 15 mg/mL of 2-phenoxyethanol.
A battery rod , comprising: a first connecting end (n1) and a second connecting end (n2), configured to be connected to an atomizer inserted into the battery rod ; and a control chip , connected to the first connecting end (n1), and configured to send a first communication signal to the atomizer inserted into the battery rod through the first connecting end, and receive a second communication signal from the atomizer through the first connecting end (n1), and realize communication between the battery rod and the atomizer , characterised in that the first communication signal comprises a first level signal (x1) as a logic high level and a second level signal (x2) as a logic low level, and the second communication signal comprises a third level signal (x3) as a logic high level and a fourth level signal (x4) as a logic low level, and the voltage difference between the first level signal (x1) and the second level signal (x2) is greater than the voltage difference between the third level signal (x3) and the fourth level signal (x4). a first connecting end (n1) and a second connecting end (n2), configured to be connected to an atomizer inserted into the battery rod ; and a control chip , connected to the first connecting end (n1), and configured to send a first communication signal to the atomizer inserted into the battery rod through the first connecting end, and receive a second communication signal from the atomizer through the first connecting end (n1), and realize communication between the battery rod and the atomizer , characterised in that the first communication signal comprises a first level signal (x1) as a logic high level and a second level signal (x2) as a logic low level, and the second communication signal comprises a third level signal (x3) as a logic high level and a fourth level signal (x4) as a logic low level, and the voltage difference between the first level signal (x1) and the second level signal (x2) is greater than the voltage difference between the third level signal (x3) and the fourth level signal (x4).
A lighting device for a motor vehicle, comprising an optical housing in which are present a light source and an optical reflector arranged in such a way as to direct a light beam, emitted by the light source , through an opening of the optical housing, the opening being obturated by an external indicator light in order to protect the light source and the optical reflector from bad weather, the external indicator light is black or colored in the light of day characterized in that , the external indicator light absorbs between 80 % and 95 % of the daylight intensity, and in that a translucent screen is interposed between the optical reflector and the external indicator light , so as to homogenize the daylight reflected by the various elements present inside the optical box, and in that a frame is placed between the light source and the translucent screen , the frame including at least one opening letting at least a part of the light beam emitted by the light source pass through, and in that the frame hides at least a part of the inside of the housing in order to favour a greater homogenization of the light reflected by the inside of said frame, and in that the surface of the frame opposite the external indicator light is parallel or substantially parallel to the external indicator light, and in that the translucent screen covers at least partly the surface of the frame opposite the external indicator light .
A method of sending an X2 message between a first base station and a plurality of recipient base stations in a cellular telecommunications network, wherein the X2 message is transmitted via an X2 Gateway, X2GW, the method comprising the steps of: the X2GW receiving a first X2 message from the first base station via an optical fibre connection, wherein the first X2 message includes: a first address portion identifying a second and third recipient base station , and a first content portion; the X2GW transmitting a second X2 message to the second recipient base station , the second X2 message including: a second address portion identifying the second recipient base station , and the first content portion; and the X2GW transmitting a third X2 message to the third recipient base station , the third X2 message including: a third address portion identifying the third recipient base station , and the first content portion, wherein the first content portion includes a transmission frame pattern of the first base station or a scheduling pattern of the first base station . the X2GW receiving a first X2 message from the first base station via an optical fibre connection, wherein the first X2 message includes: a first address portion identifying a second and third recipient base station , and a first content portion; a first address portion identifying a second and third recipient base station , and a first content portion; the X2GW transmitting a second X2 message to the second recipient base station , the second X2 message including: a second address portion identifying the second recipient base station , and the first content portion; and a second address portion identifying the second recipient base station , and the first content portion; and the X2GW transmitting a third X2 message to the third recipient base station , the third X2 message including: a third address portion identifying the third recipient base station , and the first content portion, a third address portion identifying the third recipient base station , and the first content portion, wherein the first content portion includes a transmission frame pattern of the first base station or a scheduling pattern of the first base station .