mhurhangee/patent-ind-claim-en huggingface dataset:
A hot runner system comprising: a nozzle received in a well in a mold plate , the nozzle including a nozzle melt channel for delivering moldable material to a mold cavity, a heated nozzle body through which the nozzle melt channel extends, and a collar connected to the nozzle body, the collar surrounding and spaced apart from the nozzle body; a manifold seated against an upstream end of the nozzle , the manifold including a manifold melt channel having an inlet for receiving moldable material from a source and an outlet in fluid communication with the nozzle melt channel ; characterized in that a nozzle bearing member received in the well and against which a seating surface of the collar is supported; and a biasing member seated between a step in the well and the bearing member , the biasing member having plate loading surface through which biasing force is applied to the mold plate and a nozzle loading surface through which biasing force is applied to the nozzle bearing member to urge the upstream end of the nozzle against the manifold when the biasing member is compressed, the nozzle loading surface being concentric with and circumferentially offset from the seating surface of the collar and the plate loading surface being concentric with and circumferentially offset from the seating surface of the collar in the opposite direction as nozzle loading surface is circumferentially offset from the seating surface of the collar. a nozzle received in a well in a mold plate , the nozzle including a nozzle melt channel for delivering moldable material to a mold cavity, a heated nozzle body through which the nozzle melt channel extends, and a collar connected to the nozzle body, the collar surrounding and spaced apart from the nozzle body; a manifold seated against an upstream end of the nozzle , the manifold including a manifold melt channel having an inlet for receiving moldable material from a source and an outlet in fluid communication with the nozzle melt channel ; characterized in that a nozzle bearing member received in the well and against which a seating surface of the collar is supported; and a biasing member seated between a step in the well and the bearing member , the biasing member having plate loading surface through which biasing force is applied to the mold plate and a nozzle loading surface through which biasing force is applied to the nozzle bearing member to urge the upstream end of the nozzle against the manifold when the biasing member is compressed, the nozzle loading surface being concentric with and circumferentially offset from the seating surface of the collar and the plate loading surface being concentric with and circumferentially offset from the seating surface of the collar in the opposite direction as nozzle loading surface is circumferentially offset from the seating surface of the collar.
A method performed by a user equipment, UE , the method comprising: receiving, at the UE from an access device , on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF ; receiving at the UE from the access device a radio resource control, RRC, command indication to switch from using the first DCI set to using a second DCI set the method being characterized by the indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set; and wherein the first DCI set comprises a set of DCI formats having a CIF size of 3 bits, and wherein the second DCI set does not comprise any CIF. receiving, at the UE from an access device , on a physical downlink control channel, PDCCH, a first downlink control information, DCI, set with DCI formats (402, 404, 406; 502, 504, 506, 508) containing a carrier indicator field, CIF ; receiving at the UE from the access device a radio resource control, RRC, command indication to switch from using the first DCI set to using a second DCI set the method being characterized by the indication causing the UE to reconfigure, when carriers are aggregated for use by the UE, for switching from monitoring the first downlink control information, DCI, set to monitoring the second DCI set; and wherein the first DCI set comprises a set of DCI formats having a CIF size of 3 bits, and wherein the second DCI set does not comprise any CIF.
A single longitudinal mode ring Raman laser including: a pump source outputting a pump light power, mode matched and resonantly coupled to a first ring resonator ; a stabilizing optical circuit for resonantly coupling the pump light power to the first ring resonator , including a piezo-actuator for stabilising the resonant coupling; the first ring resonator including a Raman gain medium ; wherein the Raman gain medium receives the pump light power and undergoes Raman lasing generating Stokes power at a corresponding Stokes wavelength; the first ring resonator acting as laser feedback loop for the pump light power and the Stokes power and outputting a portion of the Stokes power as the laser output; and a unidirectional isolator for causing the Stokes output power to propagate in one direction within the first ring resonator; wherein the unidirectional isolator includes a partially reflective element , or an element with second order nonlinearity to provide sum frequency mixing of the pump light power with a bidirectional generated field to force unidirectional oscillation. a pump source outputting a pump light power, mode matched and resonantly coupled to a first ring resonator ; a stabilizing optical circuit for resonantly coupling the pump light power to the first ring resonator , including a piezo-actuator for stabilising the resonant coupling; the first ring resonator including a Raman gain medium ; wherein the Raman gain medium receives the pump light power and undergoes Raman lasing generating Stokes power at a corresponding Stokes wavelength; the first ring resonator acting as laser feedback loop for the pump light power and the Stokes power and outputting a portion of the Stokes power as the laser output; and a unidirectional isolator for causing the Stokes output power to propagate in one direction within the first ring resonator; wherein the unidirectional isolator includes a partially reflective element , or an element with second order nonlinearity to provide sum frequency mixing of the pump light power with a bidirectional generated field to force unidirectional oscillation.
A process for making a detergent composition comprising the steps of: a) providing an isotropic base mix, wherein the base mix comprises: i. greater than 15 wt% of surfactant, and ii. less than 1.2 wt% of a non-surfactant salts; b) adding non-surfactant salt to the isotropic base mix such that the resultant liquid detergent composition comprises at least 15 % of a liquid crystalline phase, wherein the non-surfactant salt is defined as a salt that does not comprise an ion having a hydrophobic tail bound to a charged group. a) providing an isotropic base mix, wherein the base mix comprises: i. greater than 15 wt% of surfactant, and ii. less than 1.2 wt% of a non-surfactant salts; i. greater than 15 wt% of surfactant, and ii. less than 1.2 wt% of a non-surfactant salts; b) adding non-surfactant salt to the isotropic base mix such that the resultant liquid detergent composition comprises at least 15 % of a liquid crystalline phase, wherein the non-surfactant salt is defined as a salt that does not comprise an ion having a hydrophobic tail bound to a charged group.
A flight range-restricting system that is configured to control a flight range of an unmanned aerial vehicle, UAV, , the flight range-restricting system comprising: a database including a UAV capabilities storage area configured to store UAV capabilities data indicative of technical specifications of the UAV and including a maximum range of the UAV , and a restricted airspace storage area configured to store restricted airspace data indicative of a restricted airspace ; and a range-restricting control unit communicatively coupled to the database , wherein the range-restricting control unit is configured to control the flight range of the UAV based on a current location of the UAV , the UAV capabilities data, and the restricted airspace data, wherein the range-restricting control unit is configured to determine a range circle of the UAV based on the current location of the UAV and the UAV capabilities data, wherein the range-restricting control unit is configured to restrict operation of the UAV when the range circle interferes with the restricted airspace ; and wherein the range circle is centered about the current location of the UAV , or about the current location of a remote UAV control device that is configured to control operation of the UAV , with a radius representing the maximum range of the UAV. a database including a UAV capabilities storage area configured to store UAV capabilities data indicative of technical specifications of the UAV and including a maximum range of the UAV , and a restricted airspace storage area configured to store restricted airspace data indicative of a restricted airspace ; and a range-restricting control unit communicatively coupled to the database , wherein the range-restricting control unit is configured to control the flight range of the UAV based on a current location of the UAV , the UAV capabilities data, and the restricted airspace data, wherein the range-restricting control unit is configured to determine a range circle of the UAV based on the current location of the UAV and the UAV capabilities data, wherein the range-restricting control unit is configured to restrict operation of the UAV when the range circle interferes with the restricted airspace ; and wherein the range circle is centered about the current location of the UAV , or about the current location of a remote UAV control device that is configured to control operation of the UAV , with a radius representing the maximum range of the UAV.
Method for driving a bridge rectifier with active switching elements , characterized in that the active switching elements are driven during the voltage clamping in the case of load shedding such that the clamping voltage in each switching branch within each half-cycle of the current to be rectified behaves in accordance with a time-dependently predefined ramped change in a signal waveform.
A preparation method for a super absorbent polymer sheet, comprising the steps of: preparing a monomer composition comprising a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups, a polymerization initiator, an internal cross-linking agent, a foam stabilizer, an ionic polymeric binder, and an inorganic filler; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; drying the hydrogel polymer to form a super absorbent polymer; and forming the super absorbent polymer into a sheet form, wherein the ionic polymeric binder comprises at least one selected from the group consisting of carboxymethyl cellulose (CMC), and poly(sodium-4-styrene sulfonate. preparing a monomer composition comprising a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups, a polymerization initiator, an internal cross-linking agent, a foam stabilizer, an ionic polymeric binder, and an inorganic filler; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; drying the hydrogel polymer to form a super absorbent polymer; and forming the super absorbent polymer into a sheet form, wherein the ionic polymeric binder comprises at least one selected from the group consisting of carboxymethyl cellulose (CMC), and poly(sodium-4-styrene sulfonate.
A kit comprising: (i) beads coated with cardiolipin-lecithin-cholesterol antigen; and (ii) beads coated with Treponema pallidum antigen, wherein (i) and (ii) are packaged in admixture in the same container, and are stored in storage solution comprising ionic or zwitterionic detergent but lacking non-ionic detergent. (i) beads coated with cardiolipin-lecithin-cholesterol antigen; and (ii) beads coated with Treponema pallidum antigen,
A connector for connecting two spinal rods , comprising: a body that defines a first rod-receiving recess and a second rod-receiving recess , the body having proximal and distal ends that define a proximal-distal axis extending there between; a rod pusher disposed within a tunnel formed in the body , the tunnel extending along a tunnel axis; a bias element configured to bias the rod pusher towards the first rod-receiving recess ; and a first set screw threadably received in a proximal end of the tunnel to lock a first rod (R1) within the first rod-receiving recess , characterised in that the bias element comprises a spring wire that extends through a through-bore formed in the body and a through-bore formed in the rod pusher . a body that defines a first rod-receiving recess and a second rod-receiving recess , the body having proximal and distal ends that define a proximal-distal axis extending there between; a rod pusher disposed within a tunnel formed in the body , the tunnel extending along a tunnel axis; a bias element configured to bias the rod pusher towards the first rod-receiving recess ; and a first set screw threadably received in a proximal end of the tunnel to lock a first rod (R1) within the first rod-receiving recess , characterised in that the bias element comprises a spring wire that extends through a through-bore formed in the body and a through-bore formed in the rod pusher .
An integrated sink system , comprising: a standard sink basin ; a vent/holding line having a generally constant diameter along its length; a conduit between the standard sink basin and the vent/holding line , wherein the conduit joins with the vent/holding line at a joint ; at least one level sensor ; a flush valve positioned below the joint ; characterized in that the integrated sink system further comprises: a manual bypass valve that bypasses the flush valve , the manual bypass valve having a first connection point to the line at a position above the flush valve and a second connection point: i) to the line below the flush valve ; or ii) to a drain mast (DM). a standard sink basin ; a vent/holding line having a generally constant diameter along its length; a conduit between the standard sink basin and the vent/holding line , wherein the conduit joins with the vent/holding line at a joint ; at least one level sensor ; a flush valve positioned below the joint ; characterized in that the integrated sink system further comprises: a manual bypass valve that bypasses the flush valve , the manual bypass valve having a first connection point to the line at a position above the flush valve and a second connection point: i) to the line below the flush valve ; or ii) to a drain mast (DM). i) to the line below the flush valve ; or ii) to a drain mast (DM).
Timepiece escapement comprising an escapement wheel , a lever and a balance plate , the balance plate comprising a peg and an impulse tooth , the lever comprising a fork , a first rest surface , a second rest surface and an impulse surface , the escapement being arranged so that, when the balance plate turns in a first direction (S1), the first rest surface blocks the escapement wheel in an entry rest position then releases it under the action of the peg cooperating with the fork so that the escapement wheel comes into contact with the impulse tooth in order to transmit an impulse to the balance plate , and when the balance plate turns in the direction (S2) opposite to the first direction (S1), the second rest surface blocks the escapement wheel in an exit rest position then releases it under the action of the peg cooperating with the fork in order that the escapement wheel comes into contact with the impulse surface in order to transmit an impulse to the balance plate via the lever , the angle (α) between the entry and exit rest positions being smaller than the angle (β) between the entry rest position and the spindle (B) of the lever , these angles (α, β) being seen from the spindle (A) of the escapement wheel , characterised in that the escapement wheel comprises short teeth and long teeth , the short teeth being intended to cooperate exclusively with the first rest surface , the long teeth being intended to cooperate with the second rest surface , the impulse surface and the impulse tooth .
Metering device for the volumetric metering of micro-tablets or the like and for transferring metered partial amounts of them into target containers , the metering device comprising a metering unit with volumetrically specific metering chambers and a feed container , which is disposed above the metering unit in the direction of gravity, the feed container having an upper filling opening , lateral container walls and a lower container bottom with transfer openings for transferring the micro-tablets into the metering chambers , characterized in that at least one retaining bottom is disposed in the feed container between the filling opening and the container bottom , the retaining bottom covering the transfer openings in the container bottom , and at least one through-gap for the micro-tablets being formed at the side of the retaining bottom .
A cooling fan comprising: a fan housing mounted on a mounting bracket ; a rotary shaft rotatably supported by the fan housing ; a rotor fixed to the rotary shaft ; a stator fixed to the fan housing and disposed at a predetermined gap from the rotor ; and an impeller connected to the rotor so as to rotate therewith, wherein a separation prevention bar is formed in the mounting bracket so as to prevent the impeller from being separated from the fan housing , wherein the mounting bracket has an air passage portion communicating with an air discharge port of the fan housing , and the separation prevention bar is formed to extend inwardly from an edge of the air passage portion, characterized in that the separation prevention bar comprises a pair of vertical bars formed in a vertical direction at one edge of the air passage portion so as to be spaced apart from each other so that the separation prevention bar does not interfere with the rotation of the impeller , and a horizontal bar integrally connecting the pair of vertical bars . a fan housing mounted on a mounting bracket ; a rotary shaft rotatably supported by the fan housing ; a rotor fixed to the rotary shaft ; a stator fixed to the fan housing and disposed at a predetermined gap from the rotor ; and an impeller connected to the rotor so as to rotate therewith, wherein a separation prevention bar is formed in the mounting bracket so as to prevent the impeller from being separated from the fan housing , wherein the mounting bracket has an air passage portion communicating with an air discharge port of the fan housing , and the separation prevention bar is formed to extend inwardly from an edge of the air passage portion, characterized in that wherein a separation prevention bar is formed in the mounting bracket so as to prevent the impeller from being separated from the fan housing , wherein the mounting bracket has an air passage portion communicating with an air discharge port of the fan housing , and the separation prevention bar is formed to extend inwardly from an edge of the air passage portion, characterized in that the separation prevention bar comprises a pair of vertical bars formed in a vertical direction at one edge of the air passage portion so as to be spaced apart from each other so that the separation prevention bar does not interfere with the rotation of the impeller , and a horizontal bar integrally connecting the pair of vertical bars .
A method , for performance at a mobile device configured for extended access barring "EAB", for authorizing access to a transmission station for the mobile device, comprising: sending a radio resource control "RRC" connection establishment request to the transmission station; receiving at the mobile device EAB configuration information in a system information block "SIB" transmitted in a broadcast control channel "BCCH" from the transmission station, wherein the SIB is a SIB type 14 in a long term evolution "LTE" system, and the SIB type 14 includes an EAB category field to indicate a category of the mobile device where the EAB is applied ; and barring the mobile device from accessing the transmission station by the mobile device configured for EAB when the mobile device has characteristics identified in the EAB configuration information for barring. sending a radio resource control "RRC" connection establishment request to the transmission station; receiving at the mobile device EAB configuration information in a system information block "SIB" transmitted in a broadcast control channel "BCCH" from the transmission station, wherein the SIB is a SIB type 14 in a long term evolution "LTE" system, and the SIB type 14 includes an EAB category field to indicate a category of the mobile device where the EAB is applied ; and barring the mobile device from accessing the transmission station by the mobile device configured for EAB when the mobile device has characteristics identified in the EAB configuration information for barring.
A computer-implemented method for determining a sequence read count representation of a genome segment for a diagnostic test, comprising: (a) generating a count of nucleic acid sequence reads for a genome segment, which sequence reads are reads of nucleic acid from a test sample from a subject having the genome, thereby providing a count A for the segment, wherein the count A is a count of reads that matches polynucleotides in a listing or the subset of the listing; (b) generating a count of nucleic acid sequence reads for the genome or a subset of the genome, thereby providing a count B for the genome or subset of the genome; and (c) determining a count representation for the segment as a ratio of the count A to the count B, wherein the sequence reads are not subjected to an alignment process that aligns the sequence reads to the reference genome in (a), (b) and (c). (a) generating a count of nucleic acid sequence reads for a genome segment, which sequence reads are reads of nucleic acid from a test sample from a subject having the genome, thereby providing a count A for the segment, wherein the count A is a count of reads that matches polynucleotides in a listing or the subset of the listing; (b) generating a count of nucleic acid sequence reads for the genome or a subset of the genome, thereby providing a count B for the genome or subset of the genome; and (c) determining a count representation for the segment as a ratio of the count A to the count B,