mhurhangee/ep-ind-claims huggingface dataset:
A vehicular light module comprising: a plurality of light sources (500,501,502,503), wherein at least one main light source of the plurality of light sources (500,501,502,503) is configured to have a position that is adjustable longitudinally along a direction in which light radiates from the at least one main light source; a lighting guide that is movably disposed and that is configured to reflect and diffuse the light radiated from the plurality of light sources (500,501,502,503); a moving unit configured to move the at least one main light source of the plurality of light sources (500,501,502,503) and the lighting guide to adjust the reflection and the diffusion of the light radiated from that main light source by the lighting guide; a lamp housing configured to accommodate and mount the plurality of light sources (500,501,502,503), the lighting guide, and the moving unit; a movable plate coupled to the moving unit and configured to connect the moving unit with the main light source of the plurality of light sources (500,501,502,503) and the lighting guide; and a moving guide unit configured to guide a movement of the lighting guide; wherein the moving guide unit comprises: a first retainer part fitted at one end thereof into a moving slot located in a back surface of the lighting guide; and a second retainer part positioned opposite to the first retainer part and coupled to a mounting portion provided on the housing via a ball joint connection. a plurality of light sources (500,501,502,503), wherein at least one main light source of the plurality of light sources (500,501,502,503) is configured to have a position that is adjustable longitudinally along a direction in which light radiates from the at least one main light source; a lighting guide that is movably disposed and that is configured to reflect and diffuse the light radiated from the plurality of light sources (500,501,502,503); a moving unit configured to move the at least one main light source of the plurality of light sources (500,501,502,503) and the lighting guide to adjust the reflection and the diffusion of the light radiated from that main light source by the lighting guide; a lamp housing configured to accommodate and mount the plurality of light sources (500,501,502,503), the lighting guide, and the moving unit; a movable plate coupled to the moving unit and configured to connect the moving unit with the main light source of the plurality of light sources (500,501,502,503) and the lighting guide; and a moving guide unit configured to guide a movement of the lighting guide; wherein the moving guide unit comprises: a first retainer part fitted at one end thereof into a moving slot located in a back surface of the lighting guide; and a second retainer part positioned opposite to the first retainer part and coupled to a mounting portion provided on the housing via a ball joint connection. a first retainer part fitted at one end thereof into a moving slot located in a back surface of the lighting guide; and a second retainer part positioned opposite to the first retainer part and coupled to a mounting portion provided on the housing via a ball joint connection.
In a software defined network having switches including a first switch, a last switch, and intermediate switches there between, a default routing path existing between the first switch and the last switch, a method for computing path latency of the default routing path, the method comprising: inserting at least one respective flow monitoring rule in each of the switches, mandating, for each of the switches, forwarding a received rule matching packet to a next switch on the path, and further mandating, for the first switch and the last switch, sending an OpenFlow PacketIn message to a controller connected to the software defined network; inserting, in each of the switches, at least one respective flow monitoring probe matching the at least one respective flow monitoring rule in a same one the switches to initiate mandates specified by the at least one respective flow monitoring rule in the same one of the switches responsive to an arrival of the received rule matching packet thereat; time-stamping, by the controller, the OpenFlow PacketIn messages to generate PacketIn timestamps; estimating, using a processor, the path latency as differences of the PacketIn timestamps; sending EchoRequest OpenFlow messages from the controller, the controller being connected to at least some of the switches; and measuring the time of the EchoReply OpenFlow messages to return; and adjusting the estimated path latency responsive to different control channel latencies between the first switch and the last switch determined from the respective measured return times. inserting at least one respective flow monitoring rule in each of the switches, mandating, for each of the switches, forwarding a received rule matching packet to a next switch on the path, and further mandating, for the first switch and the last switch, sending an OpenFlow PacketIn message to a controller connected to the software defined network; inserting, in each of the switches, at least one respective flow monitoring probe matching the at least one respective flow monitoring rule in a same one the switches to initiate mandates specified by the at least one respective flow monitoring rule in the same one of the switches responsive to an arrival of the received rule matching packet thereat; time-stamping, by the controller, the OpenFlow PacketIn messages to generate PacketIn timestamps; estimating, using a processor, the path latency as differences of the PacketIn timestamps; sending EchoRequest OpenFlow messages from the controller, the controller being connected to at least some of the switches; and measuring the time of the EchoReply OpenFlow messages to return; and adjusting the estimated path latency responsive to different control channel latencies between the first switch and the last switch determined from the respective measured return times.
A culture medium comprising albumin, amino acids, vitamins, minerals, at least one transferrin or transferrin substitute, at least one insulin or insulin substitute, the culture medium free of animal serum and containing at least 100 ng/ml of a fibroblast growth factor selected from the group consisting of FGF4, FGF9, FGF17 and FGF18, the medium suitable for culturing primate embryonic stem cells in the absence of serum and in the absence of feeder cells and also in the absence of medium exposed to feeder cells, wherein at least 90% of the stem cells in the culture medium express Oct-4, SSEA4 or Tral-60.
A homopolypropylene satisfying the following conditions: i) a molecular weight distribution of 1.5 to 2.35; ii) a melt index (measured at 230 °C under a load of 2.16 kg in accordance with ASTM D1238) of 200 to 3000 g/10 min; iii) a remaining stress ratio of 0.001 to 0.1 %, as measured as disclosed in the specification; and iv) a complex viscosity of 5 to 600 Pa·s at an angular frequency of 1 rad/s and a complex viscosity of 5 to 300 Pa·s at an angular frequency of 100 rad/s, as measured as disclosed in the specification. i) a molecular weight distribution of 1.5 to 2.35; ii) a melt index (measured at 230 °C under a load of 2.16 kg in accordance with ASTM D1238) of 200 to 3000 g/10 min; iii) a remaining stress ratio of 0.001 to 0.1 %, as measured as disclosed in the specification; and iv) a complex viscosity of 5 to 600 Pa·s at an angular frequency of 1 rad/s and a complex viscosity of 5 to 300 Pa·s at an angular frequency of 100 rad/s, as measured as disclosed in the specification.
- A device for loading a shell into the chamber (Ch) of a gun, the loading device including a shell support a movable loading means intended to receive the shell, the movable loading means being connected to the shell support, the shell support being movable so as to allow it to be brought closer to the chamber (Ch) of the gun and the positioning of the shell, the loading device further comprising a set of supporting connecting rods (2a, 2b) forming a four-bar linkage, a swiveling driving member and a locking means that can be unlocked, the shell support being able to be connected to the gun by the set of supporting connecting rods (2a, 2b), the swiveling of the supporting connecting rods (2a, 2b) relative to the gun resulting in the movement of the shell support, the supporting connecting rods (2a, 2b) being driven by said swiveling driving member, which is itself able to be connected to a motor means, the driving member being capable of being secured to a supporting connecting rod by said locking means that can be unlocked, the driving member being furthermore capable of cooperating with said movable loading means so as to move the latter in order to position the shell in the chamber (Ch) of the gun, the locking means being defined so as to be unlocked when the supporting connecting rods (2a, 2b), and thus the shell support, are in a fixed predetermined position, referred to as the decoupling position, the continued swiveling of the driving member then causing a movement of the movable loading means, the locking means including a latch capable of assuming a locked state in which the driving member is secured to a supporting connecting rod, and an unlocked state in which the driving member is uncoupled from said supporting connecting rod, and an unlocking stop capable of moving the latch from the locked state to the unlocked state when said supporting connecting rod is in the decoupling position, the locking means further including a holding member for holding the latch in the unlocked state as long as said supporting connecting rod is in the decoupling position.
A resource configuration method, comprising: determining, by a terminal device, a target resource location, wherein the target resource location comprises at least one subframe, and the at least one subframe is an invalid subframe, wherein the invalid subframe is a subframe that is indicated by a network device as being unavailable to the terminal device; and receiving, by the terminal device, a first signal from the network device at the target resource location; wherein before the determining, by a terminal device, a target resource location, the method further comprises: determining, by the terminal device according to a determining rule pre-agreed between the terminal device and the network device, at least one invalid subframe configuration period in which the target resource location is located; wherein each invalid subframe configuration period includes a positive integer quantity of radio frames, and different invalid subframe configuration periods have a same invalid subframe configuration meaning that invalid subframes have a same location in each invalid subframe configuration period. determining, by a terminal device, a target resource location, wherein the target resource location comprises at least one subframe, and the at least one subframe is an invalid subframe, wherein the invalid subframe is a subframe that is indicated by a network device as being unavailable to the terminal device; and receiving, by the terminal device, a first signal from the network device at the target resource location; wherein before the determining, by a terminal device, a target resource location, the method further comprises: determining, by the terminal device according to a determining rule pre-agreed between the terminal device and the network device, at least one invalid subframe configuration period in which the target resource location is located; wherein each invalid subframe configuration period includes a positive integer quantity of radio frames, and different invalid subframe configuration periods have a same invalid subframe configuration meaning that invalid subframes have a same location in each invalid subframe configuration period. determining, by the terminal device according to a determining rule pre-agreed between the terminal device and the network device, at least one invalid subframe configuration period in which the target resource location is located; wherein each invalid subframe configuration period includes a positive integer quantity of radio frames, and different invalid subframe configuration periods have a same invalid subframe configuration meaning that invalid subframes have a same location in each invalid subframe configuration period.
A method of determining a distance estimate between a mobile device and a wireless transceiver communicating with the mobile device on at least one multi-carrier signal, the method comprising: receiving at least one multi-carrier signal; selecting at least two carrier signals from the at least one multi-carrier signal; measuring signal characteristics of the at least two carrier signals from the at least one multi-carrier signal; and determining the distance estimate between the mobile device and the wireless transceiver based at least partially upon the signal characteristics of each of the at least two carrier signals, and wherein determining the distance estimate further comprises: determining a carrier timing estimate, based at least in part upon the first-arrival time, for each of a plurality of carrier signals from the at least one multi-carrier signal; and combining the carrier timing estimates to form a multi-carrier timing estimate; wherein the signal characteristic of the at least two carrier signals from the at least one multi-carrier signal is a first-arrival time. receiving at least one multi-carrier signal; selecting at least two carrier signals from the at least one multi-carrier signal; measuring signal characteristics of the at least two carrier signals from the at least one multi-carrier signal; and determining the distance estimate between the mobile device and the wireless transceiver based at least partially upon the signal characteristics of each of the at least two carrier signals, and wherein determining the distance estimate further comprises: determining a carrier timing estimate, based at least in part upon the first-arrival time, for each of a plurality of carrier signals from the at least one multi-carrier signal; and combining the carrier timing estimates to form a multi-carrier timing estimate; determining a carrier timing estimate, based at least in part upon the first-arrival time, for each of a plurality of carrier signals from the at least one multi-carrier signal; and combining the carrier timing estimates to form a multi-carrier timing estimate; wherein the signal characteristic of the at least two carrier signals from the at least one multi-carrier signal is a first-arrival time.
A multi-audio stethoscope head, comprising a head body, a vibrating diaphragm and a fastener, wherein a sound collecting surface is provided on the head body, a sound guiding hole is provided in the sound collecting surface, and the fastener includes an axial through hole, a fastener sidewall configured for attaching to the head body and a diaphragm pressing portion configured for attaching the vibrating diaphragm to the head body; the vibrating diaphragm is disposed between the diaphragm pressing portion and the head body, and includes a lower surface facing the sound collecting surface of the head body and an upper surface opposite to the lower surface, a sound collecting cavity is defined between the vibrating diaphragm and the sound collecting surface, wherein at least one protruding pole which protrudes towards the vibrating diaphragm is arranged on the sound collecting surface of the head body at an radially inner side of the through hole of the fastener, and the vibrating diaphragm, when not subjected to an external force, is spaced from the protruding pole so that a sound of a first frequency is heard by the stethoscope head; and when the vibrating diaphragm is pressed to concave downwards and rest against a top end of the protruding pole, the sound collecting cavity is not divided into a plurality of disconnected compartments and a sound of a second frequency different from the first frequency is heard by the stethoscope head.
A grounding structure for an internal combustion engine, comprising: a resinous body configured to be fastened to an engine body by a bolt; an electric component attached to the body; and a conductive member electrically connecting the electric component to the bolt in order to ground the electric component to the engine body; characterised in that the electric component has a conduction surface portion configured to face the body while being spaced therefrom when the electric component is attached to the body, and the conductive member has a spring portion configured to be provided in a compressed state between the body and the conduction surface portion. a resinous body configured to be fastened to an engine body by a bolt; an electric component attached to the body; and a conductive member electrically connecting the electric component to the bolt in order to ground the electric component to the engine body; characterised in that the electric component has a conduction surface portion configured to face the body while being spaced therefrom when the electric component is attached to the body, and the conductive member has a spring portion configured to be provided in a compressed state between the body and the conduction surface portion.
A method for determining outlier dark signals when producing column offset corrections used to compensate for column fixed pattern noise in an image sensor, wherein the image sensor includes a plurality of photoactive pixels and a plurality of dark reference pixels arranged in rows and columns to form a pixel array, the method comprising: obtaining a global offset window for all of the columns in the pixel array, wherein the global offset window defines an acceptable maximum dark signal and an acceptable minimum dark signal for all of the columns; reading out a dark signal from a given number of dark reference pixels in each column; determining whether one or more of the dark signals from each column are outside the global offset window, and if so, compensating for each dark signal outside the global offset window; determining a column offset correction for each column using dark signals within the global offset window; after a given number of dark signals have been read out of the pixel array, determining a local offset window for each column in the pixel array, wherein the local offset window defines an acceptable maximum dark signal and an acceptable minimum dark signal for each column, wherein the given number of dark reference pixels is based on a confidence level in the column offset corrections; reading out a dark signal from a given number of dark reference pixels in each column; determining whether one or more of the dark signals from each column are outside a respective local offset window, and if so, compensating for each dark signal outside the local offset window; and determining a column offset correction for each column using dark signals within the local offset windows. obtaining a global offset window for all of the columns in the pixel array, wherein the global offset window defines an acceptable maximum dark signal and an acceptable minimum dark signal for all of the columns; reading out a dark signal from a given number of dark reference pixels in each column; determining whether one or more of the dark signals from each column are outside the global offset window, and if so, compensating for each dark signal outside the global offset window; determining a column offset correction for each column using dark signals within the global offset window; after a given number of dark signals have been read out of the pixel array, determining a local offset window for each column in the pixel array, wherein the local offset window defines an acceptable maximum dark signal and an acceptable minimum dark signal for each column, wherein the given number of dark reference pixels is based on a confidence level in the column offset corrections; reading out a dark signal from a given number of dark reference pixels in each column; determining whether one or more of the dark signals from each column are outside a respective local offset window, and if so, compensating for each dark signal outside the local offset window; and determining a column offset correction for each column using dark signals within the local offset windows.
Method for determining an optimal three-dimensional surface reconstruction of an object comprising a tubular vessel or a tree of tubular vessels, the method comprising the following steps: a) generating a three-dimensional surface reconstruction of the object from two or more bi-dimensional images of the object which have been obtained from different perspectives; b) receiving from a user indications for locating a section or area or volume of interest on the three-dimensional surface reconstruction, the section or area or volume of interest comprising a N-furcation, particularly a bifurcation, an N-furcation being a part of the vessel or the tree where a proximal tubular organ branches into N distal tubular organs with N≥2; c) determining from the three-dimensional surface reconstruction a perspective of the object optimized for viewing such section or area or volume of interest, wherein such perspective is substantially perpendicular to a plane fitting all the branches of the N-furcation; d) obtaining a bi-dimensional image of the object from such a perspective either acquiring it or using an already available image; e) generating an updated three-dimensional surface reconstruction of the object which is based on all or part of the bi-dimensional images as in step a) and the additional image as in step d). a) generating a three-dimensional surface reconstruction of the object from two or more bi-dimensional images of the object which have been obtained from different perspectives; b) receiving from a user indications for locating a section or area or volume of interest on the three-dimensional surface reconstruction, the section or area or volume of interest comprising a N-furcation, particularly a bifurcation, an N-furcation being a part of the vessel or the tree where a proximal tubular organ branches into N distal tubular organs with N≥2; c) determining from the three-dimensional surface reconstruction a perspective of the object optimized for viewing such section or area or volume of interest, wherein such perspective is substantially perpendicular to a plane fitting all the branches of the N-furcation; d) obtaining a bi-dimensional image of the object from such a perspective either acquiring it or using an already available image; e) generating an updated three-dimensional surface reconstruction of the object which is based on all or part of the bi-dimensional images as in step a) and the additional image as in step d).
An electric heating device with heating elements (36, 88), disposed in a housing (12, 56, 72), wherein the housing (12, 56, 72) has a housing cover (20, 82), a housing base (22, 84), a plastic frame, two housing side elements and two housing front elements, wherein in the housing base and in the housing cover, openings (24, 86) are provided in which a respective heating element (36, 88) with a sealing element is disposed, wherein in the respective opening (24, 86), a sealing element (26, 54, 67, 69, 92) is provided in which the respective heating element (36, 88) is disposed, wherein the housing (12, 56, 72) has two housing half-shells (48, 50; 60, 62), wherein the housing half-shells (48, 50; 60, 62) are disposed substantially perpendicular to the housing cover (20, 82) and to the housing base (22, 84).