mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an optical transport network comprising, - detecting a demand for connecting a first network node of a predetermined first network part of said optical transport network and a second network node of a predetermined second network part of said optical transport network, characterized by - searching in predetermined network topology information a first connection characterized by a resource allocated for said first connection to connect said predetermined first network part of said optical network to said predetermined second network part of said optical network, and either another resource allocated for said first connection to connect said first network part and said second network part of said optical network or two other resources allocated for said first connection to connect said first network part and said second network part of said optical network to a predetermined third network part of said optical network respectively, - rerouting said first connection. - detecting a demand for connecting a first network node of a predetermined first network part of said optical transport network and a second network node of a predetermined second network part of said optical transport network, - searching in predetermined network topology information a first connection characterized by a resource allocated for said first connection to connect said predetermined first network part of said optical network to said predetermined second network part of said optical network, and either another resource allocated for said first connection to connect said first network part and said second network part of said optical network or two other resources allocated for said first connection to connect said first network part and said second network part of said optical network to a predetermined third network part of said optical network respectively, a resource allocated for said first connection to connect said predetermined first network part of said optical network to said predetermined second network part of said optical network, and either another resource allocated for said first connection to connect said first network part and said second network part of said optical network or two other resources allocated for said first connection to connect said first network part and said second network part of said optical network to a predetermined third network part of said optical network respectively, - rerouting said first connection.
A minimally invasive surgical system, comprising: an endoscope for generating a plurality of endoscopic video frames as the endoscope is advanced to a target location within an anatomical region of a body, the endoscopic video frames illustrating monocular endoscopic images of the anatomical region; and an endoscopic surgical control unit in communication with the endoscope to receive the endoscopic video frames as the endoscope is advanced to the target location, wherein the endoscopic surgical control unit is operable to track positions of the endoscope within the anatomical region as the endoscope is advanced to the target location within the anatomical region, determine a velocity of the endoscope in a frame time series from the tracked positions, determine an optical flow by generating a vector field including a plurality of vectors, each vector indicative of a motion of one of the image points within the frame time series, and estimate a depth field indicative of a depth of an object within the monocular endoscopic images of the anatomical region as a function of the optical flow of at least one image point within the frame time series of the monocular endoscopic image of the anatomical region and the determined velocity. an endoscope for generating a plurality of endoscopic video frames as the endoscope is advanced to a target location within an anatomical region of a body, the endoscopic video frames illustrating monocular endoscopic images of the anatomical region; and an endoscopic surgical control unit in communication with the endoscope to receive the endoscopic video frames as the endoscope is advanced to the target location, wherein the endoscopic surgical control unit is operable to track positions of the endoscope within the anatomical region as the endoscope is advanced to the target location within the anatomical region, determine a velocity of the endoscope in a frame time series from the tracked positions, determine an optical flow by generating a vector field including a plurality of vectors, each vector indicative of a motion of one of the image points within the frame time series, and estimate a depth field indicative of a depth of an object within the monocular endoscopic images of the anatomical region as a function of the optical flow of at least one image point within the frame time series of the monocular endoscopic image of the anatomical region and the determined velocity. track positions of the endoscope within the anatomical region as the endoscope is advanced to the target location within the anatomical region, determine a velocity of the endoscope in a frame time series from the tracked positions, determine an optical flow by generating a vector field including a plurality of vectors, each vector indicative of a motion of one of the image points within the frame time series, and estimate a depth field indicative of a depth of an object within the monocular endoscopic images of the anatomical region as a function of the optical flow of at least one image point within the frame time series of the monocular endoscopic image of the anatomical region and the determined velocity.
An apparatus, comprising a caster assembly with a wheel rotatably coupled to a caster housing and a deflector tab pivotably coupled to the caster housing and offset from an outer wheel circumference; characterized in that, a first magnet is coupled to the caster housing and a second magnet is coupled to the deflector tab; wherein the attractive force between the first and second magnets is strong enough to pull the deflector tab into a pusher position, in which the deflector tab is configured to push a mobile obstacle in front of the wheel movement to prevent the mobile obstacle from inhibiting wheel movement, when the deflector tab encounters a mobile obstacle during wheel movement; and wherein the attractive force between the first and second magnets is weak enough to allow movement of the deflector tab into a ramp position, in which the deflector tab is configured to allow the caster to be moved up a ramped surface, formed between the deflector tab and the fixed obstacle, over the fixed obstacle, when the deflector tab encounters a fixed obstacle during wheel movement.
A cylinder lubricant having a BN determined according to the ASTM D-2896 standard, greater than or equal to 40 milligrams of potash per gram of lubricant, comprising a lubricant base oil for a marine engine and at least one overbased detergent based on alkaline or earth alkaline metals, characterized in that it further contains an amount of 0.01% to 10% by weight based on the total weight of the lubricant, of one or more compounds selected from the group consisting of: - mono-esters of saturated fatty mono-acids including at least 14 carbon atoms and of mono-alcohols including at most 6 carbon atoms, - di-esters of saturated fatty mono-acids including at least 14 carbon atoms and of alcohols including at most 6 carbon atoms. - mono-esters of saturated fatty mono-acids including at least 14 carbon atoms and of mono-alcohols including at most 6 carbon atoms, - di-esters of saturated fatty mono-acids including at least 14 carbon atoms and of alcohols including at most 6 carbon atoms.
A display apparatus comprising: a display panel; a light guide plate disposed behind the display panel and configured to guide light to the display panel; a light source configured to irradiate the light to at least one from among a plurality of sides of the light guide plate; a diffusion plate disposed between the display panel and the light guide plate; and at least one diffusion plate support member coupled to the light guide plate and configured to support the diffusion plate, wherein the light guide plate comprises: an optical pattern arranged at a light emitting surface facing the diffusion plate; and at least one insertion hole formed in the light emitting surface and into which the at least one diffusion plate support member is inserted, and wherein the optical pattern comprises a pattern change region configured to change the light amount and light distribution of light emitted from the periphery of the insertion hole, and which is adjacent to at least a portion of the at least one insertion hole; characterised in that the pattern change region; is arranged at a light source side from a center of the respective one insertion hole, to surround the portion of the respective one insertion hole; or is arranged from a center of the respective one insertion hole toward an opposite side from the light source, to surround the portion of the respective one insertion hole; or surrounds an outer circumference of the respective one insertion hole. a display panel; a light guide plate disposed behind the display panel and configured to guide light to the display panel; a light source configured to irradiate the light to at least one from among a plurality of sides of the light guide plate; a diffusion plate disposed between the display panel and the light guide plate; and at least one diffusion plate support member coupled to the light guide plate and configured to support the diffusion plate, wherein the light guide plate comprises: an optical pattern arranged at a light emitting surface facing the diffusion plate; and at least one insertion hole formed in the light emitting surface and into which the at least one diffusion plate support member is inserted, and an optical pattern arranged at a light emitting surface facing the diffusion plate; and at least one insertion hole formed in the light emitting surface and into which the at least one diffusion plate support member is inserted, and wherein the optical pattern comprises a pattern change region configured to change the light amount and light distribution of light emitted from the periphery of the insertion hole, and which is adjacent to at least a portion of the at least one insertion hole; characterised in that the pattern change region; is arranged at a light source side from a center of the respective one insertion hole, to surround the portion of the respective one insertion hole; or is arranged from a center of the respective one insertion hole toward an opposite side from the light source, to surround the portion of the respective one insertion hole; or surrounds an outer circumference of the respective one insertion hole.
A system, comprising: a neural stimulation delivery system adapted to deliver a neural stimulation signal for use in delivering a neural stimulation therapy, a side effect detector adapted to receive a signal for use in detecting a side effect; a controller adapted to control the neural stimulation delivery system, receive a signal indicative of detected side effect from the side effect detector, determine whether the detected side effect is attributable to delivered neural stimulation therapy, characterized by said neural stimulation signal having a biphasic waveform with a first phase and a second phase, whereby said controller is further adapted to automatically titrate the neural stimulation therapy to abate the side effect, said titration including independently adjusting at least one stimulation parameter for at least one phase in the biphasic waveform. a neural stimulation delivery system adapted to deliver a neural stimulation signal for use in delivering a neural stimulation therapy, a side effect detector adapted to receive a signal for use in detecting a side effect; a controller adapted to control the neural stimulation delivery system, receive a signal indicative of detected side effect from the side effect detector, determine whether the detected side effect is attributable to delivered neural stimulation therapy, characterized by said neural stimulation signal having a biphasic waveform with a first phase and a second phase, whereby said controller is further adapted to automatically titrate the neural stimulation therapy to abate the side effect, said titration including independently adjusting at least one stimulation parameter for at least one phase in the biphasic waveform.
A variator fault detection circuit, comprising a first shift valve movable from a first position to a second position axially spaced from the first position in a first valve chamber of a hydraulic control circuit for a continuously variable transmission, the first shift valve having a first port in fluid communication with a variator of the continuously variable transmission and a second port axially spaced from the first port, a second shift valve movable from a first position to a second position axially spaced from the first position in a second valve chamber of the hydraulic control circuit of the continuously variable transmission, the second shift valve having a first port in fluid communication with the variator of the continuously variable transmission and a second port axially spaced from the first port, characterized in that the variator fault detection circuit further comprises: a first pressure switch coupled to the second port of the first shift valve, a second pressure switch coupled to the second port of the second shift valve, a first electro-hydraulic actuator coupled to the first shift valve, and a second electro-hydraulic actuator coupled to the second shift valve. a first shift valve movable from a first position to a second position axially spaced from the first position in a first valve chamber of a hydraulic control circuit for a continuously variable transmission, the first shift valve having a first port in fluid communication with a variator of the continuously variable transmission and a second port axially spaced from the first port, a second shift valve movable from a first position to a second position axially spaced from the first position in a second valve chamber of the hydraulic control circuit of the continuously variable transmission, the second shift valve having a first port in fluid communication with the variator of the continuously variable transmission and a second port axially spaced from the first port, a first pressure switch coupled to the second port of the first shift valve, a second pressure switch coupled to the second port of the second shift valve, a first electro-hydraulic actuator coupled to the first shift valve, and a second electro-hydraulic actuator coupled to the second shift valve.
Method for personalizing a UICC cooperating with a terminal, said method comprising: i- Sending from said UICC to a-D-HSS, which is an improved HSS, an attach request message comprising an IMSI with a given MCC/MNC; ii- Sending from said D-HSS to said UICC at least a command and a first cryptographic data; iii- Computing at said UICC a secret key Ki by using said first cryptographic data; iv- Sending from said UICC to said D-HSS in at least one Authentication failure message a command and a second cryptographic data or a part of it; v- Repeating steps ii to iv until said UICC holds the entire first cryptographic data and said D-HSS holds the entire second cryptographic data; vi- When said D-HSS holds the entire second cryptographic data, computing at said D-HSS the same secret key by using said second entire cryptographic data; vii- Allocating by said D-HSS a free IMSI belonging to an operator and transferring from said D-HSS to said UICC personalization data including said free IMSI and other personalization data; viii - Personalizing said UICC with said personalization data and said secret key. i- Sending from said UICC to a-D-HSS, which is an improved HSS, an attach request message comprising an IMSI with a given MCC/MNC; ii- Sending from said D-HSS to said UICC at least a command and a first cryptographic data; iii- Computing at said UICC a secret key Ki by using said first cryptographic data; iv- Sending from said UICC to said D-HSS in at least one Authentication failure message a command and a second cryptographic data or a part of it; v- Repeating steps ii to iv until said UICC holds the entire first cryptographic data and said D-HSS holds the entire second cryptographic data; vi- When said D-HSS holds the entire second cryptographic data, computing at said D-HSS the same secret key by using said second entire cryptographic data; vii- Allocating by said D-HSS a free IMSI belonging to an operator and transferring from said D-HSS to said UICC personalization data including said free IMSI and other personalization data; viii - Personalizing said UICC with said personalization data and said secret key.
A light redirecting construction comprising the following elements in the recited order: • a first glazing substrate; • a first interlayer adjacent to the first glazing substrate, • a light redirecting film adjacent to the first interlayer, wherein the light redirecting film comprises at least one microstructure surface; • a second glazing substrate adjacent to the light redirecting film wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate. • a first glazing substrate; • a first interlayer adjacent to the first glazing substrate, • a light redirecting film adjacent to the first interlayer, wherein the light redirecting film comprises at least one microstructure surface; • a second glazing substrate adjacent to the light redirecting film wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate. wherein the light redirecting film has an area smaller than the area of the first interlayer, and wherein the first interlayer bonds the first glazing substrate to both the light redirecting film and the second glazing substrate.
A filter unit comprising: - an inlet, - an outlet fluidly coupled to the inlet and coupled to a suction device; - a filter media configured to divide a flow path into a clean portion and a contaminated portion, such that the fluid flows from the inlet and through the filter media before exiting the filter unit via the outlet, - a dust bag being coupled to the contaminated portion of the filter unit, - a filter bottom member arranged to prevent the dust bag from being drawn into the contaminated filter side by the suction device, - a backflushing arrangement configured to backflush the filter unit by reversing the flow of fluid through the filter media, wherein the backflushing arrangement includes a valve, and a pressure vessel with compressed air configured to be in fluid communication with the clean portion of the filter unit via the valve. - an inlet, - an outlet fluidly coupled to the inlet and coupled to a suction device; - a filter media configured to divide a flow path into a clean portion and a contaminated portion, such that the fluid flows from the inlet and through the filter media before exiting the filter unit via the outlet, - a dust bag being coupled to the contaminated portion of the filter unit, - a filter bottom member arranged to prevent the dust bag from being drawn into the contaminated filter side by the suction device, - a backflushing arrangement configured to backflush the filter unit by reversing the flow of fluid through the filter media, wherein the backflushing arrangement includes a valve, and a pressure vessel with compressed air configured to be in fluid communication with the clean portion of the filter unit via the valve.
An axial-flow fan in which a boss and a plurality of blades are integrally resin-molded with a hub, an axial hole thorough which a shaft of a drive motor is inserted being formed in the boss in the rotational center of the hub, wherein: the hub has an outer perimeter cylinder having an opening in the axial center, the blades being formed so as to project from the outer perimeter edge, and a lid extending from the outer perimeter cylinder toward the boss so as to cover the opening of the outer perimeter cylinder and connecting the boss and the outer perimeter cylinder together; and reinforcing ribs (74, 75) for reinforcing the connection between the hub and the boss are provided together with the hub and the boss on both axial-direction sides of the lid, characterized in that the lid extends toward an inner perimeter and in the axial direction from the outer perimeter cylinder; and the reinforcing ribs have outer perimeter reinforcing ribs connecting the outer perimeter cylinder and the lid together, and inner perimeter reinforcing ribs connecting the lid and the boss together, the reinforcing ribs (74, 75) being integrally resin-molded together with the hub and the boss on both axial-direction sides of the lid. the hub has an outer perimeter cylinder having an opening in the axial center, the blades being formed so as to project from the outer perimeter edge, and a lid extending from the outer perimeter cylinder toward the boss so as to cover the opening of the outer perimeter cylinder and connecting the boss and the outer perimeter cylinder together; and reinforcing ribs (74, 75) for reinforcing the connection between the hub and the boss are provided together with the hub and the boss on both axial-direction sides of the lid, characterized in that the lid extends toward an inner perimeter and in the axial direction from the outer perimeter cylinder; and the reinforcing ribs have outer perimeter reinforcing ribs connecting the outer perimeter cylinder and the lid together, and inner perimeter reinforcing ribs connecting the lid and the boss together, the reinforcing ribs (74, 75) being integrally resin-molded together with the hub and the boss on both axial-direction sides of the lid.
Vertical refrigerated display cabinet composed of two or more vertical modular units (10, 10', 10") connectable to each other along an axis of longitudinal extension of the cabinet, each modular unit comprising a chest which acts as base for the modular unit and has means for interconnection with the chests of other two adjacent modular units (10; 10"), said interconnecting means being positioned both at the right end wall and at the left end wall of the cabinet, said two end walls being opposed to each other with respect to the longitudinal extension axis of the chest, for each end wall (12, 13) said interconnecting means comprising at least one hollow pin which protrudes from the corresponding end wall and is composed of a first and second longitudinal tongues which are divided one to each other by two through opposed splits (22, 22) and delimit the inner hollow space of the hollow pin, the first tongue having a transversal section smaller than that of the second tongue, said interconnecting means comprising a cavity which is made on the end wall next to and out of each hollow pin and extends around the first tongue of the hollow pin, the hollow pin of the right end wall of a modular unit being destined to engage the hollow pin of the left end wall of an adjacent modular unit and vice versa in order to align and connect the two modular units during the mounting operations of the cabinet, with reference to a common alignment axis and to a reference plane (p) passing through the splits the hollow pin and the relative cavity made on the left end wall of a chest being oriented turned upside down and being offset with respect to the hollow pin and the relative cavity made on the right end wall, so that the first tongue of one pin can enter the hollow space of another pin and the second tongue of one pin can enter the cavity made next to and out of the other pin, allowing the mutual interconnection between two opposed hollow pins.