mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining a slurry injection location in machinery from a plurality of injection locations in the machinery according to a targeted obstruction in the machinery in relation to a target chip detector of a plurality of chip detectors of the machinery for testing the design of lubricant paths for bringing a lubricant past or through the targeted obstruction to the target chip detector; placing an injection tube through a machinery casing of the machinery, wherein the injection tube is secured in an opening of the machinery casing using an adhesive that seals the injection tube to the machinery casing, and wherein the injection tube is bent or directed in the internal side of the machinery casing to deliver the slurry to an intended location within the machinery casing; providing a slurry tube connected to the injection tube, the slurry tube containing a slurry comprising conductive chips and a lubricant; operating the machinery until the machinery meets one or more predetermined operating parameters; injecting the slurry into the machinery casing during operation of the machinery and after the machinery meets the one or more predetermined operating parameters; and monitoring the target chip detector for detection of the conductive chips during the operation of the machinery. determining a slurry injection location in machinery from a plurality of injection locations in the machinery according to a targeted obstruction in the machinery in relation to a target chip detector of a plurality of chip detectors of the machinery for testing the design of lubricant paths for bringing a lubricant past or through the targeted obstruction to the target chip detector; placing an injection tube through a machinery casing of the machinery, wherein the injection tube is secured in an opening of the machinery casing using an adhesive that seals the injection tube to the machinery casing, and wherein the injection tube is bent or directed in the internal side of the machinery casing to deliver the slurry to an intended location within the machinery casing; providing a slurry tube connected to the injection tube, the slurry tube containing a slurry comprising conductive chips and a lubricant; operating the machinery until the machinery meets one or more predetermined operating parameters; injecting the slurry into the machinery casing during operation of the machinery and after the machinery meets the one or more predetermined operating parameters; and monitoring the target chip detector for detection of the conductive chips during the operation of the machinery.
A method for measuring a subject's three dimensional eye movement (X,Y,R) including torsional rotation, the method comprising - providing a contact lens placed over the subject's eye, wherein the contact lens comprises one or more markers (3a,3b) that are positioned at a lateral offset with respect to a central part of the contact lens, which central part is positioned over a pupil of the subject's eye; and - calculating an angle of torsional rotation of the subject's eye around a line of sight axis of the subject's eye by using a video camera to track a position of the one or more markers (3a, 3b); characterised in that the contact lens is painted with a ring-shaped opaque area surrounding a transparent central part, wherein the opaque area is disposed to partly cover an outside ring area of a subject's pupil to mask the outside ring area of the subject's pupil from the video camera to portray the subject's pupil with a constant shape and/or diameter to the video camera. - providing a contact lens placed over the subject's eye, wherein the contact lens comprises one or more markers (3a,3b) that are positioned at a lateral offset with respect to a central part of the contact lens, which central part is positioned over a pupil of the subject's eye; and - calculating an angle of torsional rotation of the subject's eye around a line of sight axis of the subject's eye by using a video camera to track a position of the one or more markers (3a, 3b);
A vehicle lower structure comprising: a battery pack stored under a floor panel, a lower frame that is a framework member provided on a bottom surface of the battery pack, and having fastening portions formed at both ends that project outward from the battery pack in a vehicle width direction, a pair of side members (110,112) that are framework members, the side members being provided on both sides of the floor panel in the vehicle width direction and extending in a vehicle front-rear direction, wherein the fastening portions of the lower frame are fastened to the side members, wherein the battery pack comprises a lower-stage battery stack fixed to the lower frame, and an upper-stage battery stack mounted in an upper stage of the lower-stage battery stack, the upper-stage battery stack is separated from the lower-stage battery stack in a vehicle height direction, a reinforcing member is arranged at a height position that matches a height position of a separation space between the upper-stage battery stack and the lower-stage battery stack in the vehicle height direction, and the reinforcing member comprises a pair of transverse frames extending in the vehicle width direction and provided in the vehicle front-rear direction, and a pair of longitudinal frames connected to both ends of the pair of transverse frames in the vehicle width direction and extending in the vehicle front-rear direction, and the longitudinal frames project outward from the upper-stage battery stack in the vehicle width direction. a battery pack stored under a floor panel, a lower frame that is a framework member provided on a bottom surface of the battery pack, and having fastening portions formed at both ends that project outward from the battery pack in a vehicle width direction, a pair of side members (110,112) that are framework members, the side members being provided on both sides of the floor panel in the vehicle width direction and extending in a vehicle front-rear direction, wherein the fastening portions of the lower frame are fastened to the side members, wherein the battery pack comprises a lower-stage battery stack fixed to the lower frame, and an upper-stage battery stack mounted in an upper stage of the lower-stage battery stack, the upper-stage battery stack is separated from the lower-stage battery stack in a vehicle height direction, a reinforcing member is arranged at a height position that matches a height position of a separation space between the upper-stage battery stack and the lower-stage battery stack in the vehicle height direction, and the reinforcing member comprises a pair of transverse frames extending in the vehicle width direction and provided in the vehicle front-rear direction, and a pair of longitudinal frames connected to both ends of the pair of transverse frames in the vehicle width direction and extending in the vehicle front-rear direction, and the longitudinal frames project outward from the upper-stage battery stack in the vehicle width direction.
An association beamforming training, A-BFT, method between an access point communicatively coupleable to a plurality of stations through a plurality of frequency channels, the method comprising: receiving a first sector sweep, SSW, frame from a first station (410, 460) in a first slot (51, 90) on a first frequency channel; receiving a second SSW frame from a second station in a second slot (51, 90) on a second frequency channel, wherein each SSW frame is received using a quasi-omni antenna pattern; in response to receiving the first and second SSW frames, configuring corresponding first and second sector sweep feedback, SSW-feedback, frames, the corresponding first and second SSW-feedback frames being configured including a respective sector select subfield and a respective DMG antenna select subfield which are based on a measured quality of received SSW frames; determining the Sector ID and DMG Antenna ID field having the best quality; and transmitting, in response to the first SSW frame, the first SSW-feedback frame to the first station (410, 460) in the first slot on the first frequency channel and transmitting, in response to the second SSW frame, the second SSW-feedback frame to the second station in the second slot on the second frequency channel, characterized in that the second SSW frame and the second SSW-feedback frame are transmitted orthogonal to the first SSW frame and the first SSW-feedback frame through modulation techniques. receiving a first sector sweep, SSW, frame from a first station (410, 460) in a first slot (51, 90) on a first frequency channel; receiving a second SSW frame from a second station in a second slot (51, 90) on a second frequency channel, wherein each SSW frame is received using a quasi-omni antenna pattern; in response to receiving the first and second SSW frames, configuring corresponding first and second sector sweep feedback, SSW-feedback, frames, the corresponding first and second SSW-feedback frames being configured including a respective sector select subfield and a respective DMG antenna select subfield which are based on a measured quality of received SSW frames; determining the Sector ID and DMG Antenna ID field having the best quality; and transmitting, in response to the first SSW frame, the first SSW-feedback frame to the first station (410, 460) in the first slot on the first frequency channel and transmitting, in response to the second SSW frame, the second SSW-feedback frame to the second station in the second slot on the second frequency channel, characterized in that the second SSW frame and the second SSW-feedback frame are transmitted orthogonal to the first SSW frame and the first SSW-feedback frame through modulation techniques.
A motor-driving device for varying a voltage and frequency of power supplied from an external power source and supplying the varied power to a motor, the device comprising: a middle base; heat-dissipating means disposed below the middle base; a first board disposed above the middle base; power-related components disposed on the first board and in a first region thereof, wherein the power-related components include a power input terminal, a rectifying module, an initial charging circuit, an inverting module, and an output terminal block; signal-related components disposed on the first board and in a second region thereof opposite to the first region, wherein the signal-related components include a switching mode power supply (SMPS), a gate drive circuit, and a sensing and protection circuit; a second board electrically connected to the first board; a direct-current link stage mounted on the second board, wherein the DC link stage is configured to store power from the initial charging circuit and to supply the power to the inverting module and the SMPS, respectively; and a third board electrically connected to the first board, wherein the third board is configured to receive a signal from the gate drive circuit, and the sensing and protection circuit, wherein the second board is disposed below the first board and covered by the first board, wherein the DC link stage is mounted on a bottom face of the second board and is adjacent the heat-dissipating means. a middle base; heat-dissipating means disposed below the middle base; a first board disposed above the middle base; power-related components disposed on the first board and in a first region thereof, wherein the power-related components include a power input terminal, a rectifying module, an initial charging circuit, an inverting module, and an output terminal block; signal-related components disposed on the first board and in a second region thereof opposite to the first region, wherein the signal-related components include a switching mode power supply (SMPS), a gate drive circuit, and a sensing and protection circuit; a second board electrically connected to the first board; a direct-current link stage mounted on the second board, wherein the DC link stage is configured to store power from the initial charging circuit and to supply the power to the inverting module and the SMPS, respectively; and a third board electrically connected to the first board, wherein the third board is configured to receive a signal from the gate drive circuit, and the sensing and protection circuit, wherein the second board is disposed below the first board and covered by the first board, wherein the DC link stage is mounted on a bottom face of the second board and is adjacent the heat-dissipating means.
A system for forming one or more barbs on a length of suture, the system comprising: a suture nest (100,200,300) defining a longitudinal passage (101,201,301) configured for receipt of a length of suture, the suture nest (100,200,300) including at least one recess (113,213,313) formed along the longitudinal passage (101,201,301) and at least one opening (123,223,323) corresponding to the at least on recess (113,213,313); and a punch device including at least one punch member corresponding to the at least one opening (123,223,323) in the suture nest, (100,200,300) wherein the at least one punch member is configured to be selectively received within the at least one opening (123,223,323) in the suture nest (100,200,300) characterised in that the base of said punch device includes a mechanism for heating the at least one punch member. a suture nest (100,200,300) defining a longitudinal passage (101,201,301) configured for receipt of a length of suture, the suture nest (100,200,300) including at least one recess (113,213,313) formed along the longitudinal passage (101,201,301) and at least one opening (123,223,323) corresponding to the at least on recess (113,213,313); and a punch device including at least one punch member corresponding to the at least one opening (123,223,323) in the suture nest, (100,200,300) wherein the at least one punch member is configured to be selectively received within the at least one opening (123,223,323) in the suture nest (100,200,300) characterised in that the base of said punch device includes a mechanism for heating the at least one punch member.
A method for producing a polylactic acid stereocomplex, comprising performing chaotic mixing of 30 to 70 parts by weight of poly-L-lactic acid and 30 to 70 parts by weight of poly-D-lactic acid based on 100 parts by weight of the total of poly-L-lactic acid and poly-D-lactic acid.
A deflector comprising: a first end; a second end; a top wall; a base comprising: a top surface and a bottom surface, the bottom surface configured to be attached to a surface of a railway vehicle; a sidewall comprising: an inner surface and an outer surface opposite the inner surface, characterized in that the sidewall is collapsible and the top wall is connected to the base and the sidewall to form a triangular prism shape. a first end; a second end; a top wall; a base comprising: a top surface and a bottom surface, the bottom surface configured to be attached to a surface of a railway vehicle; a sidewall comprising: an inner surface and an outer surface opposite the inner surface, characterized in that the sidewall is collapsible and the top wall is connected to the base and the sidewall to form a triangular prism shape.
A package (2A, 2B, 2C, 2D, 2E, 2F, 2G, 2H) for an oral tobacco product that houses a tobacco packaging body including tobacco microparticles made of a tobacco raw material and a packaging material for packaging the tobacco microparticles and configured to cause, when being put in an oral cavity of a user, the user to absorb a tobacco component of the tobacco microparticles through saliva, the package (2A, 2B, 2C, 2D, 2E, 2F, 2G, 2H) comprising, in an inside thereof, a liquid storing section in which liquid to be supplied to the tobacco packaging body is stored.
A waterproof plug-in lamp, comprising: a lamp cap holder, a lampshade and a light emitting source, wherein a connecting portion extending downwards is disposed in the middle inside the lamp cap holder, an upper end of the lampshade is fixed to the interior of the lamp cap holder, a waterproof ring is disposed at a lower end of the lamp cap holder, the waterproof ring makes contact with a surface of the lampshade, a waterproof plug is disposed at an upper end inside the lamp cap holder, and when the lampshade is fixed to the lamp cap holder, the waterproof plug makes contact with a top end of the lampshade; wherein a thread-connected portion is disposed on the periphery of the upper end of the lampshade, a spiral portion is disposed on a side wall inside the lamp cap holder, the lampshade is threadably fixed to the lamp cap holder through the thread-connected portion and the spiral portion, characterized in that, bumps are disposed on a surface of the connecting portion, a groove is disposed at an upper end of the light emitting source, clamping holes corresponding to the bumps are disposed on two sides of the groove, a lower end of the connecting portion is plugged into the groove of the light emitting source, the bumps are clamped into the clamping holes. wherein a thread-connected portion is disposed on the periphery of the upper end of the lampshade, a spiral portion is disposed on a side wall inside the lamp cap holder, the lampshade is threadably fixed to the lamp cap holder through the thread-connected portion and the spiral portion, characterized in that, bumps are disposed on a surface of the connecting portion, a groove is disposed at an upper end of the light emitting source, clamping holes corresponding to the bumps are disposed on two sides of the groove, a lower end of the connecting portion is plugged into the groove of the light emitting source, the bumps are clamped into the clamping holes.
Method for deforming deformable bodies, preferably droplets or cells, having the following steps: - feeding a sample fluid into a channel, such that a laminar flow of the sample fluid results, wherein the sample fluid transports deformable bodies, - feeding a sheath fluid into the channel, such that a laminar flow of the sheath fluid results, and such that the sheath fluid directly borders the sample fluid in a border region of the channel and, at least in the border region, flows in the same direction as the sample fluid, wherein, at the shear rates of the sheath fluid and sample fluid occurring in the channel, the viscosity of the sheath fluid is greater than the viscosity of the sample fluid, characterised in that the deformable bodies are deformed by the forces setting in the sample fluid in the channel due to the border region, wherein the dynamic viscosity of the sheath fluid in the border region is within a range of 50 mPa.s to 250 mPa.s and wherein the dynamic viscosity of the sample fluid in the border region is within a range of 5 mPa.s to 50 mPa.s. - feeding a sample fluid into a channel, such that a laminar flow of the sample fluid results, wherein the sample fluid transports deformable bodies, - feeding a sheath fluid into the channel, such that a laminar flow of the sheath fluid results, and such that the sheath fluid directly borders the sample fluid in a border region of the channel and, at least in the border region, flows in the same direction as the sample fluid, wherein, at the shear rates of the sheath fluid and sample fluid occurring in the channel, the viscosity of the sheath fluid is greater than the viscosity of the sample fluid, characterised in that the deformable bodies are deformed by the forces setting in the sample fluid in the channel due to the border region, wherein the dynamic viscosity of the sheath fluid in the border region is within a range of 50 mPa.s to 250 mPa.s and wherein the dynamic viscosity of the sample fluid in the border region is within a range of 5 mPa.s to 50 mPa.s. wherein, at the shear rates of the sheath fluid and sample fluid occurring in the channel, the viscosity of the sheath fluid is greater than the viscosity of the sample fluid, characterised in that the deformable bodies are deformed by the forces setting in the sample fluid in the channel due to the border region, wherein the dynamic viscosity of the sheath fluid in the border region is within a range of 50 mPa.s to 250 mPa.s and wherein the dynamic viscosity of the sample fluid in the border region is within a range of 5 mPa.s to 50 mPa.s.
A crystal of autolysin E (AtlE) of Staphylococcus aureus ( S. aureus), or a crystallizable fragment of AtlE, wherein the AtlE crystal, or the crystallizable fragment thereof is characterized by (a) the space group symmetry P2 1 2 1 2 1 and (b) the unit cell dimensions of a = 46.6 Å ± 1-2 Å, b = 69.9 Å ± 1-2 Å and c = 73.3 Å ± 1-2 Å, in particular a = 46.6 Å ± 1 Å, b = 69.9 Å ± 1 Å and c = 73.3 Å ± 1 Å, with α = 90°, β = 90° and γ = 90°.
A parameter control device configured to control values of a plurality of parameters in a predetermined device according to user operations, the parameter control device comprising: a display (14, 107); a display controller configured to display on a screen displayed by said display (14, 107) values of parameters to be controlled in an array along a first axis, wherein values of the parameters are respectively indicated by positions along a second axis; and a detector configured to detect user operations on the screen; wherein said parameter control device further comprises a parameter controller configured to perform, in a sequential control mode, when the detector detects a user operation of tracing the screen in a direction of the first axis, a sequential control to temporarily change, sequentially according to progress of the tracing, to a specific value from an original value a value of each parameter corresponding to a position in the first axis direction where the tracing is being performed, wherein the parameter controller is configured to set, in the sequential control mode, a value of each parameter to the specific value while the position in the first axis direction of the tracing passes a position corresponding to the parameter, and returns the value of the parameter to said original value after the position of the tracing passes the position corresponding to the parameter (S16 to S19). a display (14, 107); a display controller configured to display on a screen displayed by said display (14, 107) values of parameters to be controlled in an array along a first axis, wherein values of the parameters are respectively indicated by positions along a second axis; and a detector configured to detect user operations on the screen; wherein said parameter control device further comprises a parameter controller configured to perform, in a sequential control mode, when the detector detects a user operation of tracing the screen in a direction of the first axis, a sequential control to temporarily change, sequentially according to progress of the tracing, to a specific value from an original value a value of each parameter corresponding to a position in the first axis direction where the tracing is being performed, wherein the parameter controller is configured to set, in the sequential control mode, a value of each parameter to the specific value while the position in the first axis direction of the tracing passes a position corresponding to the parameter, and returns the value of the parameter to said original value after the position of the tracing passes the position corresponding to the parameter (S16 to S19).