mhurhangee/ep-ind-claims huggingface dataset:
A fuel fluid flow regulator system (400, 500, 600, 700) for regulating fluid flow through a fuel delivery path, comprising: a fluid inlet of an inlet fluid path of the fuel delivery path; a fluid outlet along an outlet fluid path (482, 454) of the fuel delivery path; a fuel bypass valve in the fuel delivery path operable to selectively provide a fluid flow restriction to an outlet of the fuel bypass valve in response to changes in pressure differential; characterized by: a bypass fluid path (490, 495) fluidically connecting the inlet fluid path and the outlet fluid path (482, 454) in parallel with the fuel bypass valve; a first orifice (470, 610) restricting the bypass fluid path (490, 495); and a second orifice (472a, 472b, 572) restricting one of the inlet fluid path or the outlet fluid path (482, 454). a fluid inlet of an inlet fluid path of the fuel delivery path; a fluid outlet along an outlet fluid path (482, 454) of the fuel delivery path; a fuel bypass valve in the fuel delivery path operable to selectively provide a fluid flow restriction to an outlet of the fuel bypass valve in response to changes in pressure differential; characterized by: a bypass fluid path (490, 495) fluidically connecting the inlet fluid path and the outlet fluid path (482, 454) in parallel with the fuel bypass valve; a first orifice (470, 610) restricting the bypass fluid path (490, 495); and a second orifice (472a, 472b, 572) restricting one of the inlet fluid path or the outlet fluid path (482, 454). a bypass fluid path (490, 495) fluidically connecting the inlet fluid path and the outlet fluid path (482, 454) in parallel with the fuel bypass valve; a first orifice (470, 610) restricting the bypass fluid path (490, 495); and a second orifice (472a, 472b, 572) restricting one of the inlet fluid path or the outlet fluid path (482, 454).
A power control method for use in a cluster comprised of wireless devices including a first wireless device, a second wireless device and a third wireless device, the method comprising: receiving, at the first wireless device, power control information including a reference signal transmission power of the second wireless device, from the second wireless device, wherein the second wireless device is a cluster head in communication with other wireless devices including the first and third wireless devices; calculating, at the first wireless device, a transmission path loss between the first wireless device and the second wireless device using the reference signal transmission power of the second wireless device and a reference signal received power, RSRP, measured at the first wireless device; and determining, at the first wireless device, a first data channel transmission power of the first wireless device at which to perform communication between the first wireless device and the third wireless device, based on either one of the data channel transmitter power of the second wireless device and the transmission path loss between the first wireless device and the second wireless device depending on the position of the second wireless device. receiving, at the first wireless device, power control information including a reference signal transmission power of the second wireless device, from the second wireless device, wherein the second wireless device is a cluster head in communication with other wireless devices including the first and third wireless devices; calculating, at the first wireless device, a transmission path loss between the first wireless device and the second wireless device using the reference signal transmission power of the second wireless device and a reference signal received power, RSRP, measured at the first wireless device; and determining, at the first wireless device, a first data channel transmission power of the first wireless device at which to perform communication between the first wireless device and the third wireless device, based on either one of the data channel transmitter power of the second wireless device and the transmission path loss between the first wireless device and the second wireless device depending on the position of the second wireless device.
A method for manufacturing toner, comprising: supplying a liquid to be atomized, the liquid including at least a resin and a colorant; periodically dispensing droplets of the liquid through an atomizing unit; and solidifying the dispensed droplets into toner particles, the atomizing unit arranged to include: a thin film formed of metal having a film thickness in the range of from 5 micrometers to 500 micrometers, that contacts the liquid and has a first portion at the center and a second portion surrounding the first portion, the first portion more thick and therefore more stiff than the second portion and the first and second portions symmetrical about a central axis of the thin film; a vibration actuator connected to and supporting a periphery of the thin film, that induces vibration of the thin film; and multiple holes formed in the first portion, that discharge droplets of the liquid therethrough when the thin film vibrates. supplying a liquid to be atomized, the liquid including at least a resin and a colorant; periodically dispensing droplets of the liquid through an atomizing unit; and solidifying the dispensed droplets into toner particles, the atomizing unit arranged to include: a thin film formed of metal having a film thickness in the range of from 5 micrometers to 500 micrometers, that contacts the liquid and has a first portion at the center and a second portion surrounding the first portion, the first portion more thick and therefore more stiff than the second portion and the first and second portions symmetrical about a central axis of the thin film; a vibration actuator connected to and supporting a periphery of the thin film, that induces vibration of the thin film; and multiple holes formed in the first portion, that discharge droplets of the liquid therethrough when the thin film vibrates. a thin film formed of metal having a film thickness in the range of from 5 micrometers to 500 micrometers, that contacts the liquid and has a first portion at the center and a second portion surrounding the first portion, the first portion more thick and therefore more stiff than the second portion and the first and second portions symmetrical about a central axis of the thin film; a vibration actuator connected to and supporting a periphery of the thin film, that induces vibration of the thin film; and multiple holes formed in the first portion, that discharge droplets of the liquid therethrough when the thin film vibrates.
An information processing apparatus comprising: a transmittance detection unit that is arranged to detect a transmittance of haze at a time of imaging of a captured image, using an estimated transmittance that is estimated for each of regions from the captured image, and depth information for each of the regions; characterised in that: the transmittance detection unit is arranged to perform grayscale conversion that causes a grayscale of a depth indicated by the depth information for each of the regions to correspond to a grayscale of the estimated transmittance, and is arranged to set the depth after the grayscale conversion as the transmittance of the haze; and in the grayscale conversion, a histogram obtained by normalizing the depth indicated by the depth information is caused to correspond to a histogram of the estimated transmittance. a transmittance detection unit that is arranged to detect a transmittance of haze at a time of imaging of a captured image, using an estimated transmittance that is estimated for each of regions from the captured image, and depth information for each of the regions; the transmittance detection unit is arranged to perform grayscale conversion that causes a grayscale of a depth indicated by the depth information for each of the regions to correspond to a grayscale of the estimated transmittance, and is arranged to set the depth after the grayscale conversion as the transmittance of the haze; and in the grayscale conversion, a histogram obtained by normalizing the depth indicated by the depth information is caused to correspond to a histogram of the estimated transmittance.
Robotic surgical system for treating an anatomical structure, comprising: - a base configured to be handheld by a user, - an end effector holding a surgical tool, - an actuation unit coupled to the end effector, configured to move the end effector relative to the base, - a tracking unit configured to determine in real time a position of the surgical tool with respect to a coordinate system of the anatomical structure, - a control unit coupled to the tracking unit and to the actuation unit, the control unit being configured to: • compute a path of the tool to remove a planned volume of the anatomical structure, and • control the actuation unit to move the surgical tool according to the computed path to burr the planned volume, characterised in that the control unit is configured to determine an external surface of the anatomical structure to be treated and to compute the tool path such that the surgical tool remains under said external surface during treatment of the planned volume so as to avoid any contact of the surgical tool with another anatomical structure. - a base configured to be handheld by a user, - an end effector holding a surgical tool, - an actuation unit coupled to the end effector, configured to move the end effector relative to the base, - a tracking unit configured to determine in real time a position of the surgical tool with respect to a coordinate system of the anatomical structure, - a control unit coupled to the tracking unit and to the actuation unit, the control unit being configured to: • compute a path of the tool to remove a planned volume of the anatomical structure, and • control the actuation unit to move the surgical tool according to the computed path to burr the planned volume, characterised in that • compute a path of the tool to remove a planned volume of the anatomical structure, and • control the actuation unit to move the surgical tool according to the computed path to burr the planned volume,
A method for supporting, by a first terminal, switching between a plurality of modes for a call, the method comprising: performing a capability negotiation for a call with a second terminal; and establishing a first connection between the first terminal and a call server according to a first mode among the plurality of modes for the call with the second terminal after performing the capability negotiation, wherein the performing of the capability negotiation comprises transmitting a first message comprising information indicating a media attribute of each of two or more modes of the plurality of modes to the call server, and information indicating modes in which simulcasting is performed when switching between the modes of the two or more modes, wherein the plurality of modes comprises a phone mode in which the call is performed using the first terminal, a tethered mode in which the first terminal transmits data related to the call to a third terminal associated with the first terminal by tethering and the call is performed using the third terminal, and a standalone mode in which the third terminal directly receives the data related to the call. performing a capability negotiation for a call with a second terminal; and establishing a first connection between the first terminal and a call server according to a first mode among the plurality of modes for the call with the second terminal after performing the capability negotiation, wherein the performing of the capability negotiation comprises transmitting a first message comprising information indicating a media attribute of each of two or more modes of the plurality of modes to the call server, and information indicating modes in which simulcasting is performed when switching between the modes of the two or more modes, wherein the plurality of modes comprises a phone mode in which the call is performed using the first terminal, a tethered mode in which the first terminal transmits data related to the call to a third terminal associated with the first terminal by tethering and the call is performed using the third terminal, and a standalone mode in which the third terminal directly receives the data related to the call.
Mirror comprising an optical grating having an optically effective mirror surface, which reflects electromagnetic rays emanating from a first focal point and focuses them onto a second focal point, wherein the first and the second focal points (F1, F2) lie on a side of the optical grating facing the mirror surface and define an optical axis, wherein the optical grating comprises a plurality of mirror facets each having a facet surface, wherein the facet surfaces form the mirror surface of the grating, wherein the facet surfaces, in a sectional plane comprising the optical axis, are arranged on a plurality of imaginary elliptical shells (118a-j) which are displaced from one another along the optical axis and the common mathematical focus points of which coincide with the first and the second focal points (F1, F2), characterized in that the facet surfaces are distributed along the elliptical shells (118a-j) such that the facet surfaces are arranged at intersection points (Pn) of the elliptical shells (118a-j) with at least one section of an imaginary circular line, wherein for each point on the circular line the ratio of the distance from the first focal point to the point and the distance from the point to the second focal point has the same value.
An electronic device, comprising: a camera; a display; and a processor configured to: obtain an image using the camera; identify a face of a subject included in the image; determine a first brightness value for a first region of the identified face and a second brightness value for a second region of the identified face; determine position information of an external light source, based on the first brightness value and the second brightness value, wherein the position information comprises a position relationship between the subject and the external light source; and provide, based on the position information, through the display, guide information by displaying an object which guides a direction to move the face so that the face is located at a specific position with respect to the external light source, characterized in that the object includes information representing the position relationship between the subject and the external light source. a camera; a display; and a processor configured to: obtain an image using the camera; identify a face of a subject included in the image; determine a first brightness value for a first region of the identified face and a second brightness value for a second region of the identified face; determine position information of an external light source, based on the first brightness value and the second brightness value, wherein the position information comprises a position relationship between the subject and the external light source; and provide, based on the position information, through the display, guide information by displaying an object which guides a direction to move the face so that the face is located at a specific position with respect to the external light source, characterized in that the object includes information representing the position relationship between the subject and the external light source. obtain an image using the camera; identify a face of a subject included in the image; determine a first brightness value for a first region of the identified face and a second brightness value for a second region of the identified face; determine position information of an external light source, based on the first brightness value and the second brightness value, wherein the position information comprises a position relationship between the subject and the external light source; and provide, based on the position information, through the display, guide information by displaying an object which guides a direction to move the face so that the face is located at a specific position with respect to the external light source,
A method for operating a receiving device (206, 402) for mitigating interference in a communication network, said method comprising: selecting a subset from a plurality of disjoint subsets of degrees of freedom as a function of an identifier, wherein the subset comprises a plurality of resource blocks, each resource block comprises a number of degrees of freedom, and a degree of freedom corresponds to a communication resource unit of the communication network; selecting at least one degree of freedom within each of the plurality of resource blocks as a function of the identifier; monitoring the selected subset in order to receive a signal from a transmitting device (202, 406); estimating a number of interfering transmitting devices (202, 406) as a function of energy of the received signal in the degrees of freedom in the selected subset; and decoding the signal received in the selected degrees of freedom when the estimated number of interfering transmitting devices (202, 406) does not exceed an interference threshold; and discarding the signal received in the selected degrees of freedom when the estimated number exeeds the interference threshold. selecting a subset from a plurality of disjoint subsets of degrees of freedom as a function of an identifier, wherein the subset comprises a plurality of resource blocks, each resource block comprises a number of degrees of freedom, and a degree of freedom corresponds to a communication resource unit of the communication network; selecting at least one degree of freedom within each of the plurality of resource blocks as a function of the identifier; monitoring the selected subset in order to receive a signal from a transmitting device (202, 406); estimating a number of interfering transmitting devices (202, 406) as a function of energy of the received signal in the degrees of freedom in the selected subset; and decoding the signal received in the selected degrees of freedom when the estimated number of interfering transmitting devices (202, 406) does not exceed an interference threshold; and discarding the signal received in the selected degrees of freedom when the estimated number exeeds the interference threshold.
A top drive system for wellbore operations, the top drive system comprising a top drive apparatus and bails for supporting the top drive apparatus and from which the top drive apparatus is suspended, the bails comprising a first bail and a second bail, each of the first bail and second bail comprising a generally oval cross-sectional shaped body with an upper head portion, the body having two spaced-apart legs, each leg comprising an upper leg portion (16,16a) and a lower leg portion (18,18a), the two upper leg portions (16,16a) connected to the upper head portion and projecting down therefrom, the upper leg portions (16,16a) non-parallel to each other and each upper leg portion (16,16a) extending from the upper head portion at an upper angle to a centerline of the bail, and each lower leg portion (18,18a) extending down from a corresponding upper leg portion (16,16a), characterised in that each lower leg portion (18,18a) is at an angle to a corresponding upper leg portion (16,16a), and projecting out from the centerline of the bail in a reverse bend (N,S) with respect the corresponding upper leg portion (16,16a), each lower leg portion (18,18a) having a bottom end and wherein a bend is formed at the interface of each upper leg portion (16,16a) and lower leg portion (18,18a), the reverse bend (N,S) located to balance bending moments in each bail.
A surface plasmon sensor that comprises: a light guide reflection plate for guiding light for measurement comprising: a plurality of projections disposed on a first surface, and a plurality of first reflection surfaces inclined with respect to the first surface and disposed on the plurality of projections, the plurality of projections being positioned so as not to overlap with each other in the emitting direction of the light on a horizontal plane of the first surface; a surface plasmon resonance layer (23; 62) responsive to an object to be measured, positioned on the first surface and comprising a metal layer which is substantially parallel to the first surface of the light guide reflection plate, a light source for emitting the light to said light guide reflection plate, the light source being disposed on an end surface located at an end part of the light guide reflection plate, a light receiving element disposed on a second surface of the light guide reflection plate opposite the first surface, wherein the light guide reflection plate is transparent to light emitted by the light source, wherein the plurality of first reflection surfaces are configured to reflect the light emitted from the light source toward the surface plasmon resonance layer (23; 62), wherein the metal layer is configured to reflect the light reflected by the plurality of first reflection surfaces, wherein the light guide reflection plate is transparent to the light reflected by the metal layer and is configured to emit the light out of the second surface to the light receiving element, and wherein the light receiving element is configured to receive the light reflected by the metal layer. a light guide reflection plate for guiding light for measurement comprising: a plurality of projections disposed on a first surface, and a plurality of first reflection surfaces inclined with respect to the first surface and disposed on the plurality of projections, the plurality of projections being positioned so as not to overlap with each other in the emitting direction of the light on a horizontal plane of the first surface; a plurality of projections disposed on a first surface, and a plurality of first reflection surfaces inclined with respect to the first surface and disposed on the plurality of projections, the plurality of projections being positioned so as not to overlap with each other in the emitting direction of the light on a horizontal plane of the first surface; a surface plasmon resonance layer (23; 62) responsive to an object to be measured, positioned on the first surface and comprising a metal layer which is substantially parallel to the first surface of the light guide reflection plate, a light source for emitting the light to said light guide reflection plate, the light source being disposed on an end surface located at an end part of the light guide reflection plate, a light receiving element disposed on a second surface of the light guide reflection plate opposite the first surface,
An assembly for a drug delivery device, the assembly comprising an actuator which is configured to perform a setting movement in order to set a dose and which is configured to perform a dispense movement in order to dispense a dose, and a piston rod, which is configured to be moved in a distal direction in order to dispense a dose, and a snap feature which is configured to snap into engagement with the piston rod, wherein the snap feature is configured to inhibit a dispense movement of the actuator when a maximum amount of medication has been delivered, and wherein the assembly comprises a drive member which is configured to drive the piston rod towards a distal end of the device in order to deliver a dose of medication, wherein the snap feature is configured as a resilient member, wherein the snap feature is preloaded before snapping into engagement with the piston rod, and wherein the snap feature is enabled to relax when snapping into engagement with the piston rod characterised in that the drive member comprises at least one first recess, wherein the snap feature comprises at least one protrusion which is permanently engaged with the first recess of the drive member, wherein the piston rod comprises at least one second recess, wherein the snap feature is configured to engage with the second recess.