mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a synchronization signal, the method comprises: determining , by a first terminal, a D2D type, wherein the D2D type comprises D2D discovery and D2D communication; and transmitting , by the first terminal, a first synchronization signal including a D2D synchronization signal and a physical D2D synchronization channel if the first terminal is of type D2D communication; transmitting, by the first terminal, a second synchronization signal including a D2D synchronization signal not including physical D2D synchronization channel, if the first terminal is of type D2D discovery. determining , by a first terminal, a D2D type, wherein the D2D type comprises D2D discovery and D2D communication; and transmitting , by the first terminal, a first synchronization signal including a D2D synchronization signal and a physical D2D synchronization channel if the first terminal is of type D2D communication; transmitting, by the first terminal, a second synchronization signal including a D2D synchronization signal not including physical D2D synchronization channel, if the first terminal is of type D2D discovery.
A textile for the forming of elements of underwear, of garments, of orthoses, or of seat elements having a controlled elasticity, integrating, at least in the direction of the main effort, stretch yarns having an elastic characteristic, characterized in that said stretch yarns (A) are associated along a same direction with more highly stretchable yarns (A1), having greater stretching characteristics than those of the stretch yarns (A), and in that the return force exerted by the low stretch yarns (A) is in the range from 25 to 50% of that exerted by the high stretch yarns (A1).
Portable-tool case (20a; 20b; 20c; 20h) having at least one inductive charging receiving region (15a, 17a; 15b, 17b; 15c, 17c; 15d; 15e; 15f; 15h) which is intended to receive a portable-tool rechargeable battery (14a, 16a; 14b, 16b; 14c, 16c; 14d; 14e; 14f; 14h, 16h), introduced into the inductive charging receiving region (15a, 17a; 15b, 17b; 15c, 17c; 15d; 15e; 15f; 15h), at least partially in a vicinity of at least one wall (25a; 28b; 25c; 28h) of the portable-tool case (20a; 20b; 20c; 20h) and to support inductive charging, characterized in that a latent heat storage unit (30a, 40a; 30b, 40b; 30c, 40c, 60c; 30d; 30e; 30f; 30h, 40h) for influencing a temperature of the at least one portable-tool rechargeable battery (14a, 16a; 14b, 16b; 14c, 16c; 14d; 14e; 14f; 14h, 16h) is provided, wherein the latent heat storage unit (30a, 40a; 30b, 40b; 30c, 40c; 30d; 30e; 30f) has at least one latent heat storage element (32a, 34a, 42a; 32b, 42b; 32c, 42c; 32d; 32e; 32f) which is arranged in the vicinity of the wall (25a; 28b; 25c; 28h) at least partially around the at least one inductive charging receiving region (15a, 17a; 15b, 17b; 15c, 17c; 15d; 15e; 15f) .
- A device for driving the rotation of coils, intended to be placed between two coils for storing flexible line and to cooperate selectively with each coil in order to drive the rotation of the coil about an axis of rotation (A-A'), the driving device comprising: - a central tower comprising a frame , - a support carried by the frame of the central tower , the support comprising a coil driving wheel intended to engage on a face of the coil, and at least one rotating motor able to drive the rotation of the driving wheel and conjointly that of the coil about the axis of rotation (A-A'), characterized in that the support is mounted pivoting about a pivoting axis (B-B') between a first position for the engagement of the driving wheel on a first coil and a second position for the engagement of the driving wheel on a second coil . - a central tower comprising a frame , - a support carried by the frame of the central tower , the support comprising a coil driving wheel intended to engage on a face of the coil, and at least one rotating motor able to drive the rotation of the driving wheel and conjointly that of the coil about the axis of rotation (A-A'),
An enamel composition, comprising: 15 to 50 percent by weight (wt%) of silicon dioxide (SiO 2 ); 1 to 10 wt% of boron oxide (B 2 O 3 ); 10 to 20 wt% of at least one of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O); 1 to 5 wt% of sodium fluoride (NaF); 1 to 10 wt% of zinc oxide (ZnO); and 20 to 50 wt% of titanium dioxide (TiO 2 ), molybdenum oxide (MoOs), bismuth oxide (Bi 2 O 3 ), cerium dioxide (CeO 2 ), manganese dioxide (MnO 2 ), and iron oxide (Fe 2 O 3 ). 15 to 50 percent by weight (wt%) of silicon dioxide (SiO 2 ); 1 to 10 wt% of boron oxide (B 2 O 3 ); 10 to 20 wt% of at least one of lithium oxide (Li 2 O), sodium oxide (Na 2 O), or potassium oxide (K 2 O); 1 to 5 wt% of sodium fluoride (NaF); 1 to 10 wt% of zinc oxide (ZnO); and 20 to 50 wt% of titanium dioxide (TiO 2 ), molybdenum oxide (MoOs), bismuth oxide (Bi 2 O 3 ), cerium dioxide (CeO 2 ), manganese dioxide (MnO 2 ), and iron oxide (Fe 2 O 3 ).
A network card apparatus comprising: a network card assembly comprising: a network interface card (NIC) comprising at least one network cable connector ; and a connector card coupled to the NIC by connectors (708, 2. 710), characterized by 710) comprising a U.2 connector configured to mate with a U.2 connector of a modular bay of a rackmount chassis assembly and to carry communications of the NIC over a Peripheral Component Interconnect Express (PCIe) interface of the U.2 connector . a network interface card (NIC) comprising at least one network cable connector ; and a connector card coupled to the NIC by connectors (708, 2. 710),
A fountain apparatus , comprising: a submersible pump ; a water supply pipe including one end connected to a discharge port of the submersible pump ; a rotating mechanism including a rotating shaft and a water jet nozzle configured to jet water supplied through the water supply pipe ; a support mechanism provided at the other end of the water supply pipe and configured to rotatably support the rotating mechanism via the rotating shaft ; and a float that surrounds the water supply pipe , wherein the water jet nozzle includes a first jet nozzle configured to jet the water in a jetting direction having a propulsive force component in a circumferential direction of the rotating shaft , characterized in that the submersible pump is disposed on a rotation center axis (α) of the rotating shaft . a submersible pump ; a water supply pipe including one end connected to a discharge port of the submersible pump ; a rotating mechanism including a rotating shaft and a water jet nozzle configured to jet water supplied through the water supply pipe ; a support mechanism provided at the other end of the water supply pipe and configured to rotatably support the rotating mechanism via the rotating shaft ; and a float that surrounds the water supply pipe , wherein the water jet nozzle includes a first jet nozzle configured to jet the water in a jetting direction having a propulsive force component in a circumferential direction of the rotating shaft , characterized in that the submersible pump is disposed on a rotation center axis (α) of the rotating shaft .
A method of processing media data, the method comprising: parsing, by a processor implemented in circuitry, a bitstream including data formatted according to Common Media Application Format, CMAF, the bitstream including a CMAF track file comprising a CMAF header including a file type, FTYP, box at the start of the CMAF header , and one or more CMAF fragments located in the bitstream after the CMAF header ; detecting, by the processor and during the parsing, the FTYP value for the CMAF track file of the bitstream; determining, by the processor, the location of the CMAF header of the CMAF track file using the FTYP value; determining, by the processor, that one or more CMAF fragments follow the CMAF header ; and processing, by the processor, one or more CMAF fragments of the CMAF track file, wherein processing the one or more CMAF fragments comprises: detecting one or more segment type, STYP, values in the bitstream, wherein the STYP value has a value "cmff" representative of the CMAF fragments containing the initial samples of the CMAF fragment; determining that each of the one or more STYP values corresponds to a start of a respective one of the CMAF fragments ; and processing each of the CMAF fragments starting from the corresponding STYP value. parsing, by a processor implemented in circuitry, a bitstream including data formatted according to Common Media Application Format, CMAF, the bitstream including a CMAF track file comprising a CMAF header including a file type, FTYP, box at the start of the CMAF header , and one or more CMAF fragments located in the bitstream after the CMAF header ; detecting, by the processor and during the parsing, the FTYP value for the CMAF track file of the bitstream; determining, by the processor, the location of the CMAF header of the CMAF track file using the FTYP value; determining, by the processor, that one or more CMAF fragments follow the CMAF header ; and processing, by the processor, one or more CMAF fragments of the CMAF track file, detecting one or more segment type, STYP, values in the bitstream, wherein the STYP value has a value "cmff" representative of the CMAF fragments containing the initial samples of the CMAF fragment; determining that each of the one or more STYP values corresponds to a start of a respective one of the CMAF fragments ; and processing each of the CMAF fragments starting from the corresponding STYP value.
A hand held spray dispenser comprising a liquid chamber , an air chamber , and a turbulence chamber comprising an inlet orifice and an exit orifice , whereby flow of liquid in the liquid chamber and flow of air in the air chamber towards the turbulence chamber is prevented by one or more valves ; when the valve or valves are released, liquid is forced under pressure from the liquid chamber to the turbulence chamber via a liquid conduit at a flow rate of from 0.15 to 0.6 g/s and air is forced under pressure from the air chamber to the turbulence chamber via an air conduit at a flow rate of from 0.4 to 3.0 L/min., characterized in that the air is introduced into the liquid adjacent to but before entry into the inlet orifice of turbulence chamber and the mixture passing through the inlet orifice into the turbulence chamber before being expelled through the exit orifice , wherein the inlet orifice and outlet orifice of the turbulence chamber are parallel and radially offset.
A method of transmitting a feedback frame in a wireless local area network, WLAN, system, the method comprising: generating, by a first station, STA, the feedback frame based on multi user-multi input multi output, MU-MIMO, beamforming (S1710); and transmitting, by the first STA, the feedback frame to a second STA (S1720), wherein the feedback frame includes information related to feedback subcarriers for a predetermined frequency band and a beamforming report field for the MU-MIMO beamforming, wherein the feedback subcarriers include a first subcarrier transmitted first in the feedback subcarriers and second subcarriers, wherein the second subcarriers are spaced by a number of subcarriers equal to a grouping value, wherein the first subcarrier is set to one of a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the beamforming report field includes a first signal to noise ratio, SNR, for the first subcarrier and a differential SNR for each of the second subcarriers, and wherein the differential SNR is an SNR difference between adjacent subcarriers included in the feedback subcarriers. generating, by a first station, STA, the feedback frame based on multi user-multi input multi output, MU-MIMO, beamforming (S1710); and transmitting, by the first STA, the feedback frame to a second STA (S1720), wherein the feedback frame includes information related to feedback subcarriers for a predetermined frequency band and a beamforming report field for the MU-MIMO beamforming, wherein the feedback subcarriers include a first subcarrier transmitted first in the feedback subcarriers and second subcarriers, wherein the second subcarriers are spaced by a number of subcarriers equal to a grouping value, wherein the first subcarrier is set to one of a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the beamforming report field includes a first signal to noise ratio, SNR, for the first subcarrier and a differential SNR for each of the second subcarriers, and wherein the differential SNR is an SNR difference between adjacent subcarriers included in the feedback subcarriers.
A processor for real-time localization error correction of an autonomous vehicle (AV), being configured to: retrieve a reference landmark around the AV from a map aggregating server (MAS), wherein the AV is configured to interact with the MAS for real-time localization; detect , in real time, a ground truth landmark corresponding to the reference landmark, according to image data captured by one or more image capture devices installed on the AV; the processor is characterized by being configured to: determine a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve , from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization. retrieve a reference landmark around the AV from a map aggregating server (MAS), wherein the AV is configured to interact with the MAS for real-time localization; detect , in real time, a ground truth landmark corresponding to the reference landmark, according to image data captured by one or more image capture devices installed on the AV; the processor is characterized by being configured to: determine a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve , from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization. determine a deviation between the ground truth landmark and the reference landmark as a real-time correction value for the real-time localization of the AV, by projecting the ground truth landmark from an image plane into a real-world plane, and calculating the deviation in the real-world plane; retrieve , from the MAS, a reference correction value associated with a road segment where the AV is travelling; and determine an average value of the reference correction value and the real-time correction value as a final real-time correction value for the real-time localization.
A method for power measurement in case of upgrade of a passive optical network PON comprising an optical line termination OLT , an optical distribution network ODN and a plurality of optical network units ONUs (131-13n), CHARACTERISED IN THAT said method comprises: - said OLT generating and transmitting in a test phase an optical signal starting at current operational optical output power and stepwise reducing optical output power (211-214); - said ONUs (131-13n) measuring in subsequent steps of said test phase a predetermined system performance indicator; - determining the difference between said current operational optical output power of said OLT and said optical output power of said OLT in a step of said test phase wherein said predetermined system performance indicator drops below a predetermined performance threshold for an ONU, thereby obtaining a system power margin; - determining from said system power margin a minimum optical loss budget of an optical transceiver suitable for said ONUs (131-13n) after upgrade of said PON. - said OLT generating and transmitting in a test phase an optical signal starting at current operational optical output power and stepwise reducing optical output power (211-214); - said ONUs (131-13n) measuring in subsequent steps of said test phase a predetermined system performance indicator; - determining the difference between said current operational optical output power of said OLT and said optical output power of said OLT in a step of said test phase wherein said predetermined system performance indicator drops below a predetermined performance threshold for an ONU, thereby obtaining a system power margin; - determining from said system power margin a minimum optical loss budget of an optical transceiver suitable for said ONUs (131-13n) after upgrade of said PON.
Method for calibrating a sensor for measuring a distance between the sensor and a surface , which method is used in the production of sheets or strip materials and comprises at least the following method steps: a) providing a first calibration curve as a function of the distance between the sensor and the surface against at least one measurement signal at a predefined first temperature assigned to this first calibration curve ; b) providing at least one second calibration curve as a function of the distance between the sensor and the surface against at least one measurement signal at a predefined second temperature assigned to this second calibration curve , which second temperature differs from the first temperature and from any other second temperature; c) determining at least one third calibration curve from the first calibration curve and second calibration curve of the sensor obtained in step a) and step b) for at least one third temperature that is different from the first and any second temperature. a) providing a first calibration curve as a function of the distance between the sensor and the surface against at least one measurement signal at a predefined first temperature assigned to this first calibration curve ; b) providing at least one second calibration curve as a function of the distance between the sensor and the surface against at least one measurement signal at a predefined second temperature assigned to this second calibration curve , which second temperature differs from the first temperature and from any other second temperature; c) determining at least one third calibration curve from the first calibration curve and second calibration curve of the sensor obtained in step a) and step b) for at least one third temperature that is different from the first and any second temperature.
A flexible device, comprising: a flexible functional element ; a plurality of first movable elements ; and a plurality of second movable elements , each of the plurality of second movable elements rotatably connecting to a corresponding first movable element via rotation shafts, a rotation of each of the plurality of second movable elements relative to one of the plurality of first movable elements deforming the flexible functional element , wherein a rotation damping value of one of the rotation shafts is different from that of another one of the rotation shafts, characterised in that the flexible device further comprises: limitation elements , each of the limitation elements being sleeved on one of the rotation shafts and abutting against one of the plurality of the first movable elements , wherein each of the limitation elements is movable relative to one of the rotation shafts to adjust the rotation damping value of the one of the rotation shafts, and wherein each of the limitation elements comprises an elastic tab and a locking element , the elastic tab of each of the limitation elements being elastically sandwiched between the locking element of each of the limitation elements and one of the plurality of the first movable elements . a flexible functional element ; a plurality of first movable elements ; and a plurality of second movable elements , each of the plurality of second movable elements rotatably connecting to a corresponding first movable element via rotation shafts, a rotation of each of the plurality of second movable elements relative to one of the plurality of first movable elements deforming the flexible functional element , wherein a rotation damping value of one of the rotation shafts is different from that of another one of the rotation shafts, characterised in that the flexible device further comprises: limitation elements , each of the limitation elements being sleeved on one of the rotation shafts and abutting against one of the plurality of the first movable elements , wherein each of the limitation elements is movable relative to one of the rotation shafts to adjust the rotation damping value of the one of the rotation shafts, and wherein each of the limitation elements comprises an elastic tab and a locking element , the elastic tab of each of the limitation elements being elastically sandwiched between the locking element of each of the limitation elements and one of the plurality of the first movable elements . limitation elements , each of the limitation elements being sleeved on one of the rotation shafts and abutting against one of the plurality of the first movable elements , wherein each of the limitation elements is movable relative to one of the rotation shafts to adjust the rotation damping value of the one of the rotation shafts, and wherein each of the limitation elements comprises an elastic tab and a locking element , the elastic tab of each of the limitation elements being elastically sandwiched between the locking element of each of the limitation elements and one of the plurality of the first movable elements .