mhurhangee/patent-ind-claim-en huggingface dataset:
A lubricant blend composition, comprising: a first lubricant that is 60 to 90 percent by volume of the lubricant blend composition; and a second lubricant that is 10 to 40 percent by volume of the lubricant blend composition, the lubricant blend composition has a resulting viscosity when mixed with a refrigerant including at least one of or blends of 1,1-dichloro-2,2,2-difluoroethane, 1,1,1,3,3-pentafluoropropane, 1,1,2,2,3-pentafluoropropane, 1,1-difluoroethane, 1-chloro-3,3,3-trifluoropropene (Z), 2-chloro-3,3,3-trifluoropropene, 1,1-dichloro-3,3,3-trifluoropropene, 2,3,3,3-tetrafluoropropene, 1,3,3,3-tetrafluoropropene (E), 1,3,3,3-tetrafluoropropene (Z), 1,2-dichloro-3,3,3-trifluoropropene (E), 1,2-dichloro-3,3,3-trifluoropropene (Z), 1,1,3-trichloro-3,3,3-trifluoropropene, 1,2-dichloroethylene (E), 1,2-dichloroethylene (Z), 1,1-dichloroethylene, 1, 1, 1,4,4,4-hexafluorobutene (Z), 1,1,1,4,4,4-hexafluorobutene (E), 1,1,1,2,3-pentafluoropropane, 1,1,1,3,3-pentafluoropropane, C2-C8 hydrocarbons, carbon dioxide, and ammonia, and that exhibits a suitable miscibility and solubility with the refrigerant within the desired operating range of a vapor compression system as shown by a single phase in the refrigerant from -12°C to 60°C, wherein the first lubricant includes polyol ester (POE) and has an International Standards Organization (ISO) viscosity at 40° C of 120 to 220 centistoke (cSt) and the second lubricant includes alkylbenzene (AB) and has an ISO viscosity at 40° C of 4 to 30 cSt. a first lubricant that is 60 to 90 percent by volume of the lubricant blend composition; and a second lubricant that is 10 to 40 percent by volume of the lubricant blend composition, the lubricant blend composition has a resulting viscosity when mixed with a refrigerant including at least one of or blends of 1,1-dichloro-2,2,2-difluoroethane, 1,1,1,3,3-pentafluoropropane, 1,1,2,2,3-pentafluoropropane, 1,1-difluoroethane, 1-chloro-3,3,3-trifluoropropene (Z), 2-chloro-3,3,3-trifluoropropene, 1,1-dichloro-3,3,3-trifluoropropene, 2,3,3,3-tetrafluoropropene, 1,3,3,3-tetrafluoropropene (E), 1,3,3,3-tetrafluoropropene (Z), 1,2-dichloro-3,3,3-trifluoropropene (E), 1,2-dichloro-3,3,3-trifluoropropene (Z), 1,1,3-trichloro-3,3,3-trifluoropropene, 1,2-dichloroethylene (E), 1,2-dichloroethylene (Z), 1,1-dichloroethylene, 1, 1, 1,4,4,4-hexafluorobutene (Z), 1,1,1,4,4,4-hexafluorobutene (E), 1,1,1,2,3-pentafluoropropane, 1,1,1,3,3-pentafluoropropane, C2-C8 hydrocarbons, carbon dioxide, and ammonia, and that exhibits a suitable miscibility and solubility with the refrigerant within the desired operating range of a vapor compression system as shown by a single phase in the refrigerant from -12°C to 60°C, wherein the first lubricant includes polyol ester (POE) and has an International Standards Organization (ISO) viscosity at 40° C of 120 to 220 centistoke (cSt) and the second lubricant includes alkylbenzene (AB) and has an ISO viscosity at 40° C of 4 to 30 cSt.
A wireless communication device comprising: a PPDU generator that generates a physical layer protocol data unit, PPDU, including (i) a legacy preamble, a legacy header, a non-legacy header to be transmitted at each of a first channel and a second channel (ii) non-legacy short training field, STF, non-legacy channel estimation field, CEF, a data field and a training field to be transmitted at a third channel; and a transmitter that transmits the generated PPDU, wherein the transmitter includes an encoder, and the encoder performs error correction coding on the PPDU by encoding the legacy header and the non-legacy header into a first codeword, the non-legacy header in the first codeword including a field indicating a channel bandwidth, wherein a channel bandwidth of the first channel and channel bandwidth of the second channel are 2.16 GHz and a channel bandwidth of the third channel is 4.32 GHz, a frequency offset of the first channel from a center frequency of the third channel is set to 50% of 2.16 GHz, and a frequency offset of the second channel from the center frequency of the third channel is set to -50% of 2.16 GHz. a PPDU generator that generates a physical layer protocol data unit, PPDU, including (i) a legacy preamble, a legacy header, a non-legacy header to be transmitted at each of a first channel and a second channel (ii) non-legacy short training field, STF, non-legacy channel estimation field, CEF, a data field and a training field to be transmitted at a third channel; and (i) a legacy preamble, a legacy header, a non-legacy header to be transmitted at each of a first channel and a second channel (ii) non-legacy short training field, STF, non-legacy channel estimation field, CEF, a data field and a training field to be transmitted at a third channel; and a transmitter that transmits the generated PPDU, wherein the transmitter includes an encoder, and the encoder performs error correction coding on the PPDU by encoding the legacy header and the non-legacy header into a first codeword, the non-legacy header in the first codeword including a field indicating a channel bandwidth, wherein a channel bandwidth of the first channel and channel bandwidth of the second channel are 2.16 GHz and a channel bandwidth of the third channel is 4.32 GHz, a frequency offset of the first channel from a center frequency of the third channel is set to 50% of 2.16 GHz, and a frequency offset of the second channel from the center frequency of the third channel is set to -50% of 2.16 GHz.
A protective product , comprising: at least one expandable slit paper sheet in an expanded state, characterized in that it comprises an embossed paper sheet facing said expanded slit paper sheet and fixed to said expanded slit paper sheet along at least a portion of a length in an expansion direction of said expanded slit sheet paper, said embossed paper sheet having a plurality of embossings that increase the rigidity of said embossed paper sheet, whereby inhibiting deformation of said embossed paper sheet that is fixed to said expanded slit sheet paper.
An inspection method of inspecting a plurality of workpieces (W) one by one in succession, each of the workpieces (W) having an outer peripheral portion (Wb) rotationally symmetric about a symmetry axis (AX4), characterized in that an inspection for each of the workpieces (W) is performed by executing: a first step (S 1) of capturing an image of the workpiece (W) while holding the workpiece (W) at a pre-alignment position (PA) using a holding table and rotating the workpiece (W) about a rotary axis (AX3); a second step (S2) of moving the holding table holding the workpiece (W) to an inspection position (PI) different from the pre-alignment position (PA) after the first step (S 1); a third step (S3) of detecting misalignment of the symmetry axis (AX4) of the workpiece (W) with respect to the rotary axis (AX3) on the basis of the image of the workpiece (W) captured in the first step (S 1); a fourth step (S4) of correcting a position of the workpiece (W) at the holding table so as to eliminate the misalignment detected in the third step (S3); a fifth step (S5) of capturing an image of the workpiece (W) that have undergone a position correction while rotating the workpiece (W) about the rotary axis (AX3) at the inspection position (PI); and a sixth step (S6) of inspecting the workpiece (W) on the basis of the image captured in the fifth step (S5), and the fifth step (S5) for a previous workpiece (W) of two consecutive workpieces (W) and the first step (S1) for a next workpiece (W) are executed in parallel with each other. a first step (S 1) of capturing an image of the workpiece (W) while holding the workpiece (W) at a pre-alignment position (PA) using a holding table and rotating the workpiece (W) about a rotary axis (AX3); a second step (S2) of moving the holding table holding the workpiece (W) to an inspection position (PI) different from the pre-alignment position (PA) after the first step (S 1); a third step (S3) of detecting misalignment of the symmetry axis (AX4) of the workpiece (W) with respect to the rotary axis (AX3) on the basis of the image of the workpiece (W) captured in the first step (S 1); a fourth step (S4) of correcting a position of the workpiece (W) at the holding table so as to eliminate the misalignment detected in the third step (S3); a fifth step (S5) of capturing an image of the workpiece (W) that have undergone a position correction while rotating the workpiece (W) about the rotary axis (AX3) at the inspection position (PI); and a sixth step (S6) of inspecting the workpiece (W) on the basis of the image captured in the fifth step (S5), and the fifth step (S5) for a previous workpiece (W) of two consecutive workpieces (W) and the first step (S1) for a next workpiece (W) are executed in parallel with each other.
A method of managing a plurality of applications on a portable computing device , the method comprising: receiving , by a first application running on the computing device, a lock message comprising a timestamp and a digital signature associated with the timestamp , from a second application running on the computing device via a secure inter-application communication protocol , wherein the lock message has been generated at the second application in response to detecting a user input via a user interface of the second application , wherein the user input is configured to lock the second application , the timestamp indicative of a time at which the user input to lock the second application was detected; verifying , by the first application , the digital signature and whether the timestamp is within a time window to confirm the authenticity of the timestamp; and locking the first application when the authenticity of the timestamp is confirmed by the first application . receiving , by a first application running on the computing device, a lock message comprising a timestamp and a digital signature associated with the timestamp , from a second application running on the computing device via a secure inter-application communication protocol , wherein the lock message has been generated at the second application in response to detecting a user input via a user interface of the second application , wherein the user input is configured to lock the second application , the timestamp indicative of a time at which the user input to lock the second application was detected; verifying , by the first application , the digital signature and whether the timestamp is within a time window to confirm the authenticity of the timestamp; and locking the first application when the authenticity of the timestamp is confirmed by the first application .
A suction device with a suction device housing , in which a suction turbine for generating a suction flow (S) is arranged, the suction turbine having a suction turbine inflow opening through which the suction flow (S) can flow into the suction turbine , and at least one suction turbine outflow opening through which the suction flow (S) can flow out of the suction turbine , the suction device housing having a suction inlet for letting in the suction flow (S) and a dust collecting chamber for collecting dust contained in the suction flow (S), wherein a filter element for retaining dust in the dust collecting chamber is arranged between the dust collecting chamber and a suction turbine inflow opening of the suction turbine , wherein the suction device has a closure element with a closure body for closing the suction inlet , which closes the suction inlet in a closure position (V) and is removed from the suction inlet in a release position (FS), wherein it has a supply receptacle for receiving the closure body , when the closure body reaches the release position (FS), and wherein the closure element is movably mounted on the suction device housing for adjustment between the supply receptacle and the suction inlet by means of a bearing , characterized in that the bearing is or comprises a swivel bearing for pivotally supporting the closure element about a swivel axis (SC), in particular about a single swivel axis (SC).
A transportation line for transporting molten metal using a transfer carriage (A) that transports a receiving ladle (B) along rails for transporting a ladle (L2), which receiving ladle (B) has received the molten metal from melting works (C), and which line transfers the molten metal in a ladle for pouring (H) of pouring works (E), wherein the transfer carriage (A) is adapted to transfer the molten metal of the receiving ladle (B) into the ladle for pouring (H) and the transfer carriage (A) comprises: a transportation means that runs along the rails for transporting a ladle; a shifting means disposed on the transportation means , which shifting means moves in the direction that is perpendicular to the rails for transporting a ladle (L2); a lifting mechanism attached to a pillar (F) that is set upright on the shifting means ; a tilting means that is disposed at a lifting member of the lifting mechanism ; and a ladle-holding member that is supported by the tilting means at the axis of the tilting means , which member is tilted by the tilting means , and which can hold or release the receiving ladle (B), the transportation line for transporting molten metal is constituted in a way such that rails for the receiving ladle (L1) that receives the molten metal are laid in front of the melting works (C), and the rails for transporting a ladle (L2) that are laid alongside the pouring works (E) are laid in the direction that is perpendicular to the rails for the receiving ladle (L1). a transportation means that runs along the rails for transporting a ladle; a shifting means disposed on the transportation means , which shifting means moves in the direction that is perpendicular to the rails for transporting a ladle (L2); a lifting mechanism attached to a pillar (F) that is set upright on the shifting means ; a tilting means that is disposed at a lifting member of the lifting mechanism ; and a ladle-holding member that is supported by the tilting means at the axis of the tilting means , which member is tilted by the tilting means , and which can hold or release the receiving ladle (B), the transportation line for transporting molten metal is constituted in a way such that rails for the receiving ladle (L1) that receives the molten metal are laid in front of the melting works (C), and the rails for transporting a ladle (L2) that are laid alongside the pouring works (E) are laid in the direction that is perpendicular to the rails for the receiving ladle (L1).
A method of pressurizing a liquid oxygen tank for feeding a rocket engine with oxidizer, in which method, after filling the tank with liquid oxygen but before causing the engine to operate, pre-pressurization gaseous nitrogen is injected into the tank in order to form a gas blanket , the method being characterized in that a liquid nitrogen layer is formed at the surface of the liquid oxygen by causing the partial pressure of the nitrogen in the gas blanket to be greater than its saturated vapor pressure.
An information processing device comprising: a generator configured to generate data for printing used to print a color chart , the color chart including multiple pages each including identification patches representing page information by a sequence of color patches, and profile production patches adapted to be used for color correction of a printer ; a communication interface configured to receive color measurement results of the color chart printed based on the data for printing; an extractor configured to extract the page information represented by the sequence of identification patches in the color chart from the color measurement results received by the communication interface; and an adjustor configured to generate color correction data based on the color measurement results, characterized in that the generator generates the data for printing such that the identification patches on each page of the color chart include multiple identification patches representing a sequence of pages in the color chart, the adjustor , based on the page information extracted by the extractor , identifies a page of the color chart corresponding to the color measurement results received by the communication interface , and the adjustor sorts the color measurement results received by the communication interface according to a correct sequence of pages of the identified color chart , and generates the color correction data based on the sorted color measurement results. a generator configured to generate data for printing used to print a color chart , the color chart including multiple pages each including identification patches representing page information by a sequence of color patches, and profile production patches adapted to be used for color correction of a printer ; a communication interface configured to receive color measurement results of the color chart printed based on the data for printing; an extractor configured to extract the page information represented by the sequence of identification patches in the color chart from the color measurement results received by the communication interface; and an adjustor configured to generate color correction data based on the color measurement results, characterized in that the generator generates the data for printing such that the identification patches on each page of the color chart include multiple identification patches representing a sequence of pages in the color chart, the adjustor , based on the page information extracted by the extractor , identifies a page of the color chart corresponding to the color measurement results received by the communication interface , and the adjustor sorts the color measurement results received by the communication interface according to a correct sequence of pages of the identified color chart , and generates the color correction data based on the sorted color measurement results.
A holding fixture for holding a wireless hand-held inertial controller for passive optical and inertial tracking for use in a three dimensional, 3D, environment for augmented reality or for virtual reality, the holding fixture comprising: a central coupling portion designed to selectively and securely couple with a housing of the controller , the central coupling portion comprising a first elongate extension extending from one end of the central coupling portion and a second elongate extension extending from the other end of the central coupling portion , wherein the central coupling portion is located between said first and second extensions , and wherein the central coupling portion is sized and shaped so as to selectively, securely, and removably receive a portion of the housing of the controller in a close fit, coupling relationship; a first passive, optically reflective marker located at or close to an end of the first extension distal from the central coupling portion ; a second passive, optically reflective marker located at or close to an end of the second extension distal from the central coupling portion , wherein the central coupling portion is positioned between the first and second optically reflective markers and wherein the extensions are positioned a fixed distance relative to one another and/or relative to the central coupling portion such that a fixed and known geometric relationship is provided between the controller and markers . a central coupling portion designed to selectively and securely couple with a housing of the controller , the central coupling portion comprising a first elongate extension extending from one end of the central coupling portion and a second elongate extension extending from the other end of the central coupling portion , wherein the central coupling portion is located between said first and second extensions , and wherein the central coupling portion is sized and shaped so as to selectively, securely, and removably receive a portion of the housing of the controller in a close fit, coupling relationship; a first passive, optically reflective marker located at or close to an end of the first extension distal from the central coupling portion ; a second passive, optically reflective marker located at or close to an end of the second extension distal from the central coupling portion , wherein the central coupling portion is positioned between the first and second optically reflective markers and wherein the extensions are positioned a fixed distance relative to one another and/or relative to the central coupling portion such that a fixed and known geometric relationship is provided between the controller and markers .
A method for wireless communication by a vehicle user equipment, v-UE, comprising: performing an attach procedure by establishing a first connection to a base station and by transmitting to said base station a request to attach for wireless communications with a network that supports vehicle based communications; identifying , based on signalling received from the base station, a boundary time associated with the base station, wherein the boundary time is associated with a periodic schedule and wherein the boundary time indicates a time when v-UEs connected to the base station and participating in the vehicle based communication over the network perform a disconnect procedure and a reattach procedure; and performing the disconnect procedure and the reattach procedure substantially at the boundary time in accordance with the periodic schedule, wherein the disconnect procedure comprises the v-UE disconnecting the first connection to the base station and wherein the v-UE establishes a second connection to the base station to perform the reattach procedure. performing an attach procedure by establishing a first connection to a base station and by transmitting to said base station a request to attach for wireless communications with a network that supports vehicle based communications; identifying , based on signalling received from the base station, a boundary time associated with the base station, wherein the boundary time is associated with a periodic schedule and wherein the boundary time indicates a time when v-UEs connected to the base station and participating in the vehicle based communication over the network perform a disconnect procedure and a reattach procedure; and performing the disconnect procedure and the reattach procedure substantially at the boundary time in accordance with the periodic schedule, wherein the disconnect procedure comprises the v-UE disconnecting the first connection to the base station and wherein the v-UE establishes a second connection to the base station to perform the reattach procedure.