mhurhangee/ep-ind-claims huggingface dataset:
A Centralized Radio Access Network system to provide wireless service comprising: a controller; and a plurality of radio points; wherein each of the radio points is associated with at least one antenna and remotely located from the controller, wherein the plurality of radio points is communicatively coupled to the controller over a front haul; wherein the controller and the plurality of radio points are configured to implement a base station in order to provide wireless service to a plurality of user equipment, UEs, using a cell; wherein the controller is communicatively coupled to a core network of a wireless service provider; wherein the controller is configured to determine a simulcast zone for each UE, the simulcast zone comprising a subset of the plurality of radio points from which downlink user data is wirelessly communicated to that UE; characterized in that: the controller is configured to attempt to form a multicast zone for each UE that is suitable for the simulcast zone determined for that UE, the multicast zone for each UE comprising a subset of multicast groups selected from a set of multicast groups implemented by the front haul; and the controller is configured to, if the multicast zone for each UE is successfully formed, transmit front haul downlink user data for that UE to the radio points in the simulcast zone for that UE over the front haul by transmitting the front haul downlink user data to the multicast groups in the multicast zone for that UE. a controller; and a plurality of radio points; wherein each of the radio points is associated with at least one antenna and remotely located from the controller, wherein the plurality of radio points is communicatively coupled to the controller over a front haul; wherein the controller and the plurality of radio points are configured to implement a base station in order to provide wireless service to a plurality of user equipment, UEs, using a cell; wherein the controller is communicatively coupled to a core network of a wireless service provider; wherein the controller is configured to determine a simulcast zone for each UE, the simulcast zone comprising a subset of the plurality of radio points from which downlink user data is wirelessly communicated to that UE; characterized in that: the controller is configured to attempt to form a multicast zone for each UE that is suitable for the simulcast zone determined for that UE, the multicast zone for each UE comprising a subset of multicast groups selected from a set of multicast groups implemented by the front haul; and the controller is configured to, if the multicast zone for each UE is successfully formed, transmit front haul downlink user data for that UE to the radio points in the simulcast zone for that UE over the front haul by transmitting the front haul downlink user data to the multicast groups in the multicast zone for that UE.
Scraper strip for a scraper device, having at least one rotatable adjusting means for linearly displacing the scraper strip with respect to a scraper strip support of a scraper device, wherein the scraper strip has at least one guide groove extending substantially in the displacement direction of the scraper strip, in which groove a stationary guide means can be accommodated in such a way that the scraper strip can be displaced with respect to the guide means, characterized in that the adjusting means comprises means for displacing the scraper strip along an eccentric guide track, which extends preferably in a spiral shape or at least approximately as a circle involute, from a region at least close to a centre point M of the adjusting means in the direction of an edge region of the adjusting means.
Detachable tab (3,20,30) for a modular belt link, wherein the tab has upper and lower body portions, wherein: - the upper body portion is suitable to be arranged in a modular conveyor belt module (10,10',10"), where said upper body portion comprises a U-shaped section, having two substantially parallel flanges (11,12), upstanding from a bridge member, where the flanges (11,12) each has a distal end terminating the flange away from the flange's connection to the bridge member, and an inner side surface facing the other flange (11,12) and an outer side surface facing away from the flanges (11,12), and where - the lower body portion comprises three distinct sections (14,15,16): - a first section connecting a second section to the bridge member of the upper body portion, where said - second section is projecting in a direction opposite and parallel to the flanges (11,12) of the upper body portion, and where a - third section is arranged substantially perpendicular to said second section characterised in that said bridge member extends at least beyond one side of the flanges (11,12). - the upper body portion is suitable to be arranged in a modular conveyor belt module (10,10',10"), where said upper body portion comprises a U-shaped section, having two substantially parallel flanges (11,12), upstanding from a bridge member, where the flanges (11,12) each has a distal end terminating the flange away from the flange's connection to the bridge member, and an inner side surface facing the other flange (11,12) and an outer side surface facing away from the flanges (11,12), and where - the lower body portion comprises three distinct sections (14,15,16): - a first section connecting a second section to the bridge member of the upper body portion, where said - second section is projecting in a direction opposite and parallel to the flanges (11,12) of the upper body portion, and where a - third section is arranged substantially perpendicular to said second section characterised in that said bridge member extends at least beyond one side of the flanges (11,12).
A device for diagnosing faults in a passive optical network or PON; said PON connecting an optical line termination or OLT with optical network terminals or ONTs; the device being configured to execute the following steps: - collecting a plurality of power values indicative for an amount of signal power lost or received in respective optical links connecting said ONTs with said OLT; - marking an optical link in said PON as faulty if a power value for said optical link is worse than a reference power value; further characterized in that the device is further configured to execute the following steps: - determining a subset of said power values indicative for a respective subset of said respective optical links providing a best performance in received or lost power; - determining said reference power value from said subset. - collecting a plurality of power values indicative for an amount of signal power lost or received in respective optical links connecting said ONTs with said OLT; - marking an optical link in said PON as faulty if a power value for said optical link is worse than a reference power value; - determining a subset of said power values indicative for a respective subset of said respective optical links providing a best performance in received or lost power; - determining said reference power value from said subset.
An automatic analyzing apparatus comprising: a dispensing mechanism including a probe configured to aspirate a liquid from a specimen container and to dispense the liquid into a reaction vessel and an arm that holds the probe; and a static eliminator having a generation source of neutralizing ions and a neutralizing ion blowing mechanism for blowing neutralizing ions generated in the generation source to a target, which are provided in the dispensing mechanism, characterized in that said target is said specimen container and/or said reaction vessel, the automatic analyzing apparatus further comprising: a control unit that controls moving up/down operation and horizontal operation of the dispensing mechanism; and a neutralization control unit that controls the generation source and the neutralizing ion blowing mechanism, wherein the neutralization control unit is configured to neutralize the container that contains the liquid before the dispensing mechanism moves down, and to stop at least the neutralizing ion blowing mechanism while the dispensing mechanism is moving down, and the probe is configured to suction the liquid in a state where the neutralizing ion blowing mechanism is stopped. a dispensing mechanism including a probe configured to aspirate a liquid from a specimen container and to dispense the liquid into a reaction vessel and an arm that holds the probe; and a static eliminator having a generation source of neutralizing ions and a neutralizing ion blowing mechanism for blowing neutralizing ions generated in the generation source to a target, which are provided in the dispensing mechanism, characterized in that said target is said specimen container and/or said reaction vessel, the automatic analyzing apparatus further comprising: a control unit that controls moving up/down operation and horizontal operation of the dispensing mechanism; and a neutralization control unit that controls the generation source and the neutralizing ion blowing mechanism, wherein the neutralization control unit is configured to neutralize the container that contains the liquid before the dispensing mechanism moves down, and to stop at least the neutralizing ion blowing mechanism while the dispensing mechanism is moving down, and the probe is configured to suction the liquid in a state where the neutralizing ion blowing mechanism is stopped. a control unit that controls moving up/down operation and horizontal operation of the dispensing mechanism; and a neutralization control unit that controls the generation source and the neutralizing ion blowing mechanism, wherein the neutralization control unit is configured to neutralize the container that contains the liquid before the dispensing mechanism moves down, and to stop at least the neutralizing ion blowing mechanism while the dispensing mechanism is moving down, and the probe is configured to suction the liquid in a state where the neutralizing ion blowing mechanism is stopped.
A communications device, comprising a control board, a first cross-connect board, and a service board, wherein the control board is configured to: after receiving a go-offline signal, send a first notification signal to the first cross-connect board and the service board, wherein the first notification signal is used to indicate that a clock source switches from the control board to the first cross-connect board; the first cross-connect board is configured to maintain a second clock based on the first notification signal by using a local crystal oscillator of the first cross-connect board, wherein a frequency of the second clock is the same as a frequency of a first clock, a phase of the second clock is the same as a phase of the first clock, and the first clock is generated by the control board; and the service board is configured to switch from the first clock to the second clock based on the first notification signal. the first cross-connect board is configured to maintain a second clock based on the first notification signal by using a local crystal oscillator of the first cross-connect board, wherein a frequency of the second clock is the same as a frequency of a first clock, a phase of the second clock is the same as a phase of the first clock, and the first clock is generated by the control board; and the service board is configured to switch from the first clock to the second clock based on the first notification signal.
An electrical junction box connectable to a power supply and a load by a first electric wire and a second electric wire, comprising: a terminal block that holds a conductor to which the first electric wire and the second electric wire are commonly connected, the first electric wire being connectable to the power supply and the second electric wire being connectable to the load; a conductive case that accommodates the terminal block; and a resin insulative member that is attached along an inner wall surface of the case, wherein crimped terminals (37, 39) which are connected respectively to ends of the first and second electric wires (13, 17) are fastened to the conductor with fastening members, wherein the crimped terminal connected to the second electric wire is pivotally supported by a columnar projection, which is protruded from the terminal block, and is fastened with the fastening member; and wherein the inner wall surface of the insulative member has a stepped part which regulates a rotation of the crimped terminals with the fastening member when the fastening member is fastened, the stepped par being project from the inner wall surface at a position where to the stepped part abuts with the crimped terminal. a terminal block that holds a conductor to which the first electric wire and the second electric wire are commonly connected, the first electric wire being connectable to the power supply and the second electric wire being connectable to the load; a conductive case that accommodates the terminal block; and a resin insulative member that is attached along an inner wall surface of the case, wherein crimped terminals (37, 39) which are connected respectively to ends of the first and second electric wires (13, 17) are fastened to the conductor with fastening members, wherein the crimped terminal connected to the second electric wire is pivotally supported by a columnar projection, which is protruded from the terminal block, and is fastened with the fastening member; and wherein the inner wall surface of the insulative member has a stepped part which regulates a rotation of the crimped terminals with the fastening member when the fastening member is fastened, the stepped par being project from the inner wall surface at a position where to the stepped part abuts with the crimped terminal.
A composite material, wherein: (a) said composite material is composed of one or more ion exchange resins with ion exchange function and fluorine-containing polymer fiber functioning as reinforcing material; (b) the surface of said fluorine-containing polymer fiber is graft-modified by nitrile group--containing functional monomers; (c) at least one of ion exchange resins composing said composite material comprises nitrile group which forms triazine ring cross-linked structure with the nitrile group of the functional monomer grafted in fluorine-containing polymer fiber; wherein said nitrile group-containing functional monomer is one or more of substances shown in the following general formula: e≈1-3; said nitrile group-containing ion exchange resin is one or more of resins shown in the following general formulas and/or: wherein e≈1-3; n= 0 or 1; m=2-5; x, y= an integer of 3-15; wherein a, b, c= an integer of 3-15; a', b', c'= an integer of 1-3; j=0-3. (a) said composite material is composed of one or more ion exchange resins with ion exchange function and fluorine-containing polymer fiber functioning as reinforcing material; (b) the surface of said fluorine-containing polymer fiber is graft-modified by nitrile group--containing functional monomers; (c) at least one of ion exchange resins composing said composite material comprises nitrile group which forms triazine ring cross-linked structure with the nitrile group of the functional monomer grafted in fluorine-containing polymer fiber;
A method of determining the replacement state of wear of a rope made of a textile fibre material, characterized by the combination of the measures that, in the course of using the rope, - the elongation of the rope is monitored across its entire length and the rope is discarded when the elongation of the rope across the entire length exceeds a specified maximum value in %, and - the local elongation of a discrete rope section is monitored and the rope is discarded when the local elongation of the rope section exceeds a specified maximum value in %, wherein the maximum value of the local elongation of the rope section is greater than the maximum value of the elongation of the rope across the entire length. - the elongation of the rope is monitored across its entire length and the rope is discarded when the elongation of the rope across the entire length exceeds a specified maximum value in %, and - the local elongation of a discrete rope section is monitored and the rope is discarded when the local elongation of the rope section exceeds a specified maximum value in %,
An induction heating assembly for a vapour generating device, the heating assembly comprising: an induction heating device and an electronic component (11, 50) having material able to act as a first susceptor, wherein the induction heating device is arranged to heat, in use, a second susceptor for a first period, and the electronic component (11, 50) is arranged to be activated for a second period, and wherein the first period and the second period are non-concurrent; and a power source arranged in use to provide power to the induction heating device and the electronic component (11, 50). an induction heating device and an electronic component (11, 50) having material able to act as a first susceptor, wherein the induction heating device is arranged to heat, in use, a second susceptor for a first period, and the electronic component (11, 50) is arranged to be activated for a second period, and wherein the first period and the second period are non-concurrent; and a power source arranged in use to provide power to the induction heating device and the electronic component (11, 50).
A peptide consisting of any of the following sequences: (SEQ ID 15) SGGNNSPAA; (SEQ ID 17) SGGNNSPAL; (SEQ ID 18) SGGNNSPAM. (SEQ ID 15) SGGNNSPAA; (SEQ ID 17) SGGNNSPAL; (SEQ ID 18) SGGNNSPAM.
A mesa structure avalanche photodiode having a planar p-n junction comprising: an n-type semiconductor layer defining a planar contact area; a mesa structure, including an n-type semiconductor multiplication layer, an n-type semiconductor absorption layer, a p-type semiconductor layer, and a p-type contact layer; the n-type semiconductor multiplication layer being disposed between the n-type semiconductor layer and the n-type semiconductor absorption layer; the n-type semiconductor absorption layer being disposed between the n-type semiconductor multiplication layer and the p-type contact layer; the p-type contact layer being disposed on top of the p-type semiconductor layer; wherein the entire avalanche photodiode is epitaxially grown including the p-type semiconductor layer and a localized p-contact region is defined by etching down a portion of the full structure initially grown to the absorption layer or to a grading layer disposed between the p-type semiconductor layer and the n-type semiconductor absorption layer, so that the p-type semiconductor layer does not span the whole area of the n-type semiconductor absorption layer; wherein a passivated region is disposed in a symmetrical fashion about the p-type semiconductor layer and the remaining mesa structure of the avalanche photodiode; and wherein the n-type semiconductor layer, the n-type semiconductor absorption layer and the n-type semiconductor multiplication layer are made from ternary group III-V semiconductors, wherein the p-type semiconductor layer is made from group III-V semiconductors. an n-type semiconductor layer defining a planar contact area; a mesa structure, including an n-type semiconductor multiplication layer, an n-type semiconductor absorption layer, a p-type semiconductor layer, and a p-type contact layer; the n-type semiconductor multiplication layer being disposed between the n-type semiconductor layer and the n-type semiconductor absorption layer; the n-type semiconductor absorption layer being disposed between the n-type semiconductor multiplication layer and the p-type contact layer; the p-type contact layer being disposed on top of the p-type semiconductor layer; wherein the entire avalanche photodiode is epitaxially grown including the p-type semiconductor layer and a localized p-contact region is defined by etching down a portion of the full structure initially grown to the absorption layer or to a grading layer disposed between the p-type semiconductor layer and the n-type semiconductor absorption layer, so that the p-type semiconductor layer does not span the whole area of the n-type semiconductor absorption layer; wherein a passivated region is disposed in a symmetrical fashion about the p-type semiconductor layer and the remaining mesa structure of the avalanche photodiode; and wherein the n-type semiconductor layer, the n-type semiconductor absorption layer and the n-type semiconductor multiplication layer are made from ternary group III-V semiconductors, wherein the p-type semiconductor layer is made from group III-V semiconductors.
A soft endoscopy system, comprising an endoscope body structure, a camera assembly and an instrument adapter structure, characterized in that the endoscope body structure comprises a bendable flexible inserting portion and a handle portion connected to one end of the flexible inserting portion, the handle portion being provided with a first access portion, and the flexible inserting portion being internally provided with a first passage; the first access portion being directly or indirectly connected with the first passage; the first access port being matched with the camera assembly, and when the camera assembly accesses the first access port, at least part of the camera assembly extending into the first passage; and the first access port being further matched with the instrument adapter structure, and when the instrument adapter structure accesses the first access port and the instrument adapter structure is equipped with a first instrument, the first instrument extending into the first passage, and characterized in that: the handle portion is further internally provided with a first electrical interface; when the camera assembly accesses the handle portion internally, the camera assembly is conductively inserted into the first electrical interface; and the instrument adapter structure is provided with an electrical interface protective portion; when the instrument adapter structure accesses the handle portion internally, the electrical interface protective portion is docked with the first electrical interface. the first access port being matched with the camera assembly, and when the camera assembly accesses the first access port, at least part of the camera assembly extending into the first passage; and the first access port being further matched with the instrument adapter structure, and when the instrument adapter structure accesses the first access port and the instrument adapter structure is equipped with a first instrument, the first instrument extending into the first passage, and the handle portion is further internally provided with a first electrical interface; when the camera assembly accesses the handle portion internally, the camera assembly is conductively inserted into the first electrical interface; and the instrument adapter structure is provided with an electrical interface protective portion; when the instrument adapter structure accesses the handle portion internally, the electrical interface protective portion is docked with the first electrical interface.
A multiple bone density displaying method comprising: generating a virtual bone density display area with respect to a placed fixture in a dental image, and overlaying the virtual bone density display area at a position of the fixture, during establishment of an implant procedure plan; analyzing a bone density corresponding to the bone density display area; and displaying the analyzed bone density as color information in the bone density display area, wherein the virtual bone density display area is disposed at the position of the fixture in a translucent form. generating a virtual bone density display area with respect to a placed fixture in a dental image, and overlaying the virtual bone density display area at a position of the fixture, during establishment of an implant procedure plan; analyzing a bone density corresponding to the bone density display area; and displaying the analyzed bone density as color information in the bone density display area, wherein the virtual bone density display area is disposed at the position of the fixture in a translucent form.