mhurhangee/patent-ind-claim-en huggingface dataset:
A method of obtaining a point cloud dataset of mapping points for a virtual environment, comprising the steps of: obtaining (s1510) a first sequence of video images output by a videogame title; obtaining (s1520) a corresponding sequence of in-game virtual camera positions at which the video images were created; obtaining (s1530) a corresponding sequence of depth buffer values for a depth buffer used by the videogame whilst creating the video images; and for each of a plurality of video images and corresponding depth buffer values of the obtained sequences, obtaining (s1542) mapping points corresponding to a sampling distribution of points over the area of a respective video image and their associated depth values; wherein respective mapping points are obtained by projecting (s1544) co-ordinates derived from the sample points from the respective video image and associated depth values back into a 3D game world co-ordinate system of the videogame title; thereby obtaining the point cloud dataset of mapping points corresponding to the first sequence of video images, the point cloud dataset of mapping points located within a same map space for the 3D game world co-ordinate system. obtaining (s1510) a first sequence of video images output by a videogame title; obtaining (s1520) a corresponding sequence of in-game virtual camera positions at which the video images were created; obtaining (s1530) a corresponding sequence of depth buffer values for a depth buffer used by the videogame whilst creating the video images; and for each of a plurality of video images and corresponding depth buffer values of the obtained sequences, obtaining (s1542) mapping points corresponding to a sampling distribution of points over the area of a respective video image and their associated depth values; wherein respective mapping points are obtained by projecting (s1544) co-ordinates derived from the sample points from the respective video image and associated depth values back into a 3D game world co-ordinate system of the videogame title; thereby obtaining the point cloud dataset of mapping points corresponding to the first sequence of video images, the point cloud dataset of mapping points located within a same map space for the 3D game world co-ordinate system.
A blade cascade for a turbomachine, in particular a gas turbine, having a number of first blade arrangements , each having at least one first blade and one first shroud having a first extension (T1) in the circumferential and/or axial direction, and each having a number of second blade arrangements , each having at least one second blade and one second shroud having a second extension (T2) in the same direction which is larger than the first extension, characterized in that at least one of the first blades is designed to be stiffer torsionally than at least one of the second blades.
An inflation film comprising a base film, including: a polyamide-based resin; a copolymer containing polyamide-based segments and poly-ether-based segments; and an olefin-based polymer compound, wherein a ratio of a machine direction modulus of the base film to a transverse direction modulus of the base film at 25 % elongation after heat-treating the base film at 170 °C for 30 minutes, is from 0.8 to 1.2, measured as described in the description, wherein the inflation film is manufactured, comprising a step of inflating a molten resin composition including: a polyamide-based resin; a copolymer containing a polyamide-based segment and a poly-ether-based segment; and an olefin-based polymer compound at a blow-up ratio (BUR) of 1.5 to 3.
A wireless transmit/receive unit, WTRU, comprising: a transceiver configured to communicate on a primary downlink, DL, carrier and a secondary DL carrier; the transceiver is further configured to receive a medium access control, MAC, message indicating activation or deactivation of the secondary DL carrier; wherein on a condition that the MAC message indicates that the secondary DL carrier is activated, the WTRU is adapted to monitor the secondary DL carrier for control messages; wherein on a condition that the MAC message indicates that the secondary DL carrier is deactivated, the WTRU is adapted to cease monitoring the secondary DL carrier; a processor configured to utilize a timer based on the activation of the secondary DL carrier; and wherein on a condition that the timer expires, the WTRU is adapted to deactivate the secondary DL carrier. a transceiver configured to communicate on a primary downlink, DL, carrier and a secondary DL carrier; the transceiver is further configured to receive a medium access control, MAC, message indicating activation or deactivation of the secondary DL carrier; wherein on a condition that the MAC message indicates that the secondary DL carrier is activated, the WTRU is adapted to monitor the secondary DL carrier for control messages; wherein on a condition that the MAC message indicates that the secondary DL carrier is deactivated, the WTRU is adapted to cease monitoring the secondary DL carrier; a processor configured to utilize a timer based on the activation of the secondary DL carrier; and wherein on a condition that the timer expires, the WTRU is adapted to deactivate the secondary DL carrier.
A method for oxidizing an olefin wax of 10 to 100 carbon atoms, comprising (a) mixing said olefin wax with a salt of an alkaline earth metal in an amount to provide 0.001 to 0.03 weight percent of the alkaline earth metal of the reaction mixture, the anion of said salt comprising 4 to 36 carbon atoms; (b) heating said mixture to 100 to 180 °C, or 140-160 °C; and (c) supplying to said heated mixture a molecular oxygen-containing gas; wherein the method is conducted in the substantial absence of manganese or cobalt compounds, such that the amount of manganese or cobalt is less than 1 % or less than 0.1% or less than 0.01 percent by weight of the amount of the alkaline earth metal from the alkaline earth metal salt. (a) mixing said olefin wax with a salt of an alkaline earth metal in an amount to provide 0.001 to 0.03 weight percent of the alkaline earth metal of the reaction mixture, the anion of said salt comprising 4 to 36 carbon atoms; (b) heating said mixture to 100 to 180 °C, or 140-160 °C; and (c) supplying to said heated mixture a molecular oxygen-containing gas; wherein the method is conducted in the substantial absence of manganese or cobalt compounds, such that the amount of manganese or cobalt is less than 1 % or less than 0.1% or less than 0.01 percent by weight of the amount of the alkaline earth metal from the alkaline earth metal salt.
An integrally formed coupling module, wherein the integrally formed coupling module comprises a total internal reflective surface , a medium air interface , and an air medium interface , wherein the total internal reflective surface is configured to reflect a first optical signal emitted by a laser to form a second optical signal, and the second optical signal is output to the medium air interface ; the medium air interface is configured to refract the second optical signal to form a third optical signal, and the third optical signal is output from air to the air medium interface ; the air medium interface is configured to refract the third optical signal to form a fourth optical signal, and the fourth optical signal is output to an optical fiber; and spatial locations of the total internal reflective surface , the medium air interface , and the air medium interface satisfy the following relationship: a refractive angle at which the medium air interface performs refraction to form the third optical signal is equal to an incidence angle at which the third optical signal is output to the air medium interface , and a first incident plane and a second incident plane are mutually perpendicular in space, wherein the first incident plane is an incident plane formed by the second optical signal output to the medium air interface and a normal of the medium air interface , and the second incident plane is an incident plane formed by the third optical signal output to the air medium interface and a normal of the air medium interface , wherein the air medium interface is further configured to reflect the third optical signal, to form a sixth optical signal; and the sixth optical signal is output to an optical monitor, and the optical monitor monitors, according to the sixth optical signal, optical signal power at which the laser emits the first optical signal; wherein, the integrally formed coupling module has no polarization-sensitive characteristic such that a ratio of optical power of the sixth optical signal reflected from the air medium interface to optical power of the fourth optical signal refracted from the air medium interface is fixed.
Pump for receptacle , in particular a vial intended to contain a cosmetic product, said pump comprising a pumping chamber with variable capacity defined at least in part by a deformable membrane , the pump functioning by varying the capacity of the chamber by elastic deformation of the membrane between an initial state wherein the chamber has a maximal capacity and a deformed state wherein the capacity of the chamber is minimal, the chamber being equipped with an inlet orifice and an outlet orifice for the product, the pump comprising a means of deformation of the membrane configured to exert pressure on the membrane , the pump further comprising a guiding rod traversing the membrane , the membrane having a dome form presenting a longitudinal axis in the initial state and sliding along the rod when it undergoes said deformation, the rod being substantially positioned according to said longitudinal axis, the membrane comprising an appendage positioned at the summit of the dome , the rod traversing the appendage such that the appendage slides along the rod during the deformation of the membrane , the outlet orifice being a slit and being fitted on the appendage , the membrane undergoing a friction force against the rod during the deformation in such a way as to provoke the opening of the slit .
An oral care composition comprising: a) from 3 to 80% by weight of calcium silicate; b) a soluble calcium source; c) a phosphate source; and d) a physiologically acceptable carrier; wherein the calcium silicate and the soluble calcium source is present in a weight ratio from 1:3 to 20:1. a) from 3 to 80% by weight of calcium silicate; b) a soluble calcium source; c) a phosphate source; and d) a physiologically acceptable carrier; wherein the calcium silicate and the soluble calcium source is present in a weight ratio from 1:3 to 20:1.
An apparatus, comprising: a processor circuit ; an endpoint component operative on the processor circuit to receive an incoming call from a user device of a user , and identify an incoming phone number for the incoming call; a menu retrieval component operative on the processor circuit to determine a voice menu based on the incoming phone number by retrieving a custom voice script specific to the user and compiling the custom voice script in response to the received incoming call to produce the custom voice menu; a menu performance component operative on the processor circuit to perform the voice menu; and a call state persistence component operative to persist a user state in the performed voice menu, wherein said user state is composed of a position within a defined logic flow and a value of any information retrieved or received by the voice menu system, wherein upon the user reconnecting, the call state persistence component is characterized in that it is operative to present an option to the user to either resume the persisted user state in the performed voice menu or to start over. a processor circuit ; an endpoint component operative on the processor circuit to receive an incoming call from a user device of a user , and identify an incoming phone number for the incoming call; a menu retrieval component operative on the processor circuit to determine a voice menu based on the incoming phone number by retrieving a custom voice script specific to the user and compiling the custom voice script in response to the received incoming call to produce the custom voice menu; a menu performance component operative on the processor circuit to perform the voice menu; and a call state persistence component operative to persist a user state in the performed voice menu, wherein said user state is composed of a position within a defined logic flow and a value of any information retrieved or received by the voice menu system, wherein upon the user reconnecting, the call state persistence component is characterized in that it is operative to present an option to the user to either resume the persisted user state in the performed voice menu or to start over.
A system for performing cardiopulmonary resuscitation (CPR), the system comprising: a support structure configured to elevate a head and a heart of an individual above a lower body of the individual , wherein the lower body is in a substantially horizontal plane , wherein an elevation device is configured to be raised from a starting position to a raised position, and wherein in the raised position the heart is elevated by the elevation device to between about 2.54 and 15.24 cm (1 and 6 inches) above the substantially horizontal plane and the head is elevated between about 7.62 and 38.1 cm (3 and 15 inches) above the substantially horizontal plane ; wherein the support structure comprises a first portion and a second portion that are operably coupled together, and further comprising at least one elevation device to raise the first portion or the second portion from the starting position to the raised position such that when the elevation device is actuated both the first portion and the second portion are elevated together, but are at different angles relative to the substantially horizontal plane ; and a chest compression device coupled with the support structure such that when the support structure is elevated a positional relationship between the support structure and the chest compression device is maintained. a support structure configured to elevate a head and a heart of an individual above a lower body of the individual , wherein the lower body is in a substantially horizontal plane , wherein an elevation device is configured to be raised from a starting position to a raised position, and wherein in the raised position the heart is elevated by the elevation device to between about 2.54 and 15.24 cm (1 and 6 inches) above the substantially horizontal plane and the head is elevated between about 7.62 and 38.1 cm (3 and 15 inches) above the substantially horizontal plane ; wherein the support structure comprises a first portion and a second portion that are operably coupled together, and further comprising at least one elevation device to raise the first portion or the second portion from the starting position to the raised position such that when the elevation device is actuated both the first portion and the second portion are elevated together, but are at different angles relative to the substantially horizontal plane ; and a chest compression device coupled with the support structure such that when the support structure is elevated a positional relationship between the support structure and the chest compression device is maintained.
A method for analysis of content of encrypted traffic between processes, the method comprising: rerouting to a server traffic between a first process executing on a first computing device and a second process executing on a second computing device to determine that there is a protected connection established between the first process and the second process; determining, by the first computing device, information about an application associated with the first process, wherein the information is determined based at least on a version of the application and includes an address of a function to call that obtains a session key for the protected connection; obtaining, by the first computing device, the session key for the protected connection by calling the function and transferring, by the first computing device, the session key to the server; prior to calling the function, verifying, by the first computing device, compatibility of the version of the application with a method of analysis of content of the rerouted traffic; decrypting the rerouted traffic using the session key and analyzing the rerouted traffic by the server using the compatible method to determine whether the traffic contains malicious objects; and in response to determining the traffic contains malicious objects, counteracting, by the server, the malicious objects by blocking or rerouting the traffic. rerouting to a server traffic between a first process executing on a first computing device and a second process executing on a second computing device to determine that there is a protected connection established between the first process and the second process; determining, by the first computing device, information about an application associated with the first process, wherein the information is determined based at least on a version of the application and includes an address of a function to call that obtains a session key for the protected connection; obtaining, by the first computing device, the session key for the protected connection by calling the function and transferring, by the first computing device, the session key to the server; prior to calling the function, verifying, by the first computing device, compatibility of the version of the application with a method of analysis of content of the rerouted traffic; decrypting the rerouted traffic using the session key and analyzing the rerouted traffic by the server using the compatible method to determine whether the traffic contains malicious objects; and in response to determining the traffic contains malicious objects, counteracting, by the server, the malicious objects by blocking or rerouting the traffic.
A pharmaceutical composition containing: udenafil or a pharmaceutically acceptable salt thereof; a pH adjusting agent; and cyclodextrin or a derivative thereof, wherein the cyclodextrin derivative is at least one selected from the group consisting of α-cyclodextrin, β-cyclodextrin, γ-cyclodextrin, 2-hydroxypropyl-β-cyclodextrin, 2,6-dimethyl-β-cyclodextrin, sulfobutylether-7-β-cyclodextrin, 2-hydroxyethyl-β-cyclodextrin, (2-carboxymethoxy)propyl-β-cyclodextrin, 2-hydroxyethyl-γ-cyclodextrin, and 2-hydroxypropyl-γ-cyclodextrin, wherein the pharmaceutical composition is a liquid or syrup formulation for oral administration, wherein the pharmaceutical composition further comprises a viscosity modifier, wherein the pharmaceutical composition has a viscosity of 0.4 Pa·s [400 cPs] to 4 Pa·s [4,000 cPs] measured with a Brookfield DV-E viscometer, Model LVDVE using spindle S62 at a rotation speed of 30 rpm, and wherein the pharmaceutical composition has a pH ranging from 3 to 6. wherein the cyclodextrin derivative is at least one selected from the group consisting of α-cyclodextrin, β-cyclodextrin, γ-cyclodextrin, 2-hydroxypropyl-β-cyclodextrin, 2,6-dimethyl-β-cyclodextrin, sulfobutylether-7-β-cyclodextrin, 2-hydroxyethyl-β-cyclodextrin, (2-carboxymethoxy)propyl-β-cyclodextrin, 2-hydroxyethyl-γ-cyclodextrin, and 2-hydroxypropyl-γ-cyclodextrin, wherein the pharmaceutical composition is a liquid or syrup formulation for oral administration, wherein the pharmaceutical composition further comprises a viscosity modifier, wherein the pharmaceutical composition has a viscosity of 0.4 Pa·s [400 cPs] to 4 Pa·s [4,000 cPs] measured with a Brookfield DV-E viscometer, Model LVDVE using spindle S62 at a rotation speed of 30 rpm, and wherein the pharmaceutical composition has a pH ranging from 3 to 6.
A method of wireless communication at a user equipment, UE, comprising: transmitting a first uplink message during a transmission time interval, TTI, in a first frequency band of a system bandwidth; transmitting signaling indicative of a retuning capability of the UE, wherein the retuning capability indicates a duration for the UE to retune based at least in part on a number of symbols for UE retuning; retuning a transmitter to a second frequency band of the system bandwidth during a first portion of a second TTI, wherein the second TTI directly follows the first TTI and a duration of the first portion of the second TTI is based at least in part on the duration for the UE to retune indicated by the retuning capability, the retuning capability being based at least in part on a coverage enhancement requirement of the UE; and transmitting a second uplink message during a second portion of the second TTI in the second frequency band. transmitting a first uplink message during a transmission time interval, TTI, in a first frequency band of a system bandwidth; transmitting signaling indicative of a retuning capability of the UE, wherein the retuning capability indicates a duration for the UE to retune based at least in part on a number of symbols for UE retuning; retuning a transmitter to a second frequency band of the system bandwidth during a first portion of a second TTI, wherein the second TTI directly follows the first TTI and a duration of the first portion of the second TTI is based at least in part on the duration for the UE to retune indicated by the retuning capability, the retuning capability being based at least in part on a coverage enhancement requirement of the UE; and transmitting a second uplink message during a second portion of the second TTI in the second frequency band.
A method performed by a control node for handling data traffic between a Transmission and Reception Point, TRP, , and a User Equipment, UE, in a wireless communications network , which TRP is controlled by a network node and is serving the data traffic in a first sector carrier, and which data traffic in the first sector carrier is processed by a first Baseband Unit, BBU, , the method comprising: deciding to re-allocate the processing of the data traffic in the first BBU to a second BBU , which second BBU processes data traffic in a second sector carrier provided by the TRP , wherein the first BBU processes data traffic of the first sector carrier in a first cell , and wherein the second BBU processes data traffic of the second sector carrier in a second cell , sending a first order to the network node to prepare the second sector carrier to represent the TRP in the second cell , sending a second order to the network node , to stop processing data traffic of the first sector carrier in the first BBU , sending an instruction to the network node to configure active UEs on the first sector carrier to handover the data traffic from the first cell to the second cell sending a third order to the network node , to activate the second sector carrier, start processing the data traffic in the second BBU , and to deactivate the first sector carrier. deciding to re-allocate the processing of the data traffic in the first BBU to a second BBU , which second BBU processes data traffic in a second sector carrier provided by the TRP , wherein the first BBU processes data traffic of the first sector carrier in a first cell , and wherein the second BBU processes data traffic of the second sector carrier in a second cell , sending a first order to the network node to prepare the second sector carrier to represent the TRP in the second cell , sending a second order to the network node , to stop processing data traffic of the first sector carrier in the first BBU , sending an instruction to the network node to configure active UEs on the first sector carrier to handover the data traffic from the first cell to the second cell sending a third order to the network node , to activate the second sector carrier, start processing the data traffic in the second BBU , and to deactivate the first sector carrier.