mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a channel quality indicator (CQI) value in coordinated multi-point transmission/reception (COMP), comprising the steps of: feeding back (S102), by a receiving side, an independent CQI value or normalized useful signal power of each point of all or part of points in a COMP measurement set or reporting set to a network side; feeding back (S104), by the receiving side, a correlation coefficient; characterized in that the correlation coefficient is the average value calculated according to all the correlation coefficients between the channel of each point and the channel of a master serving point and corresponding weight values determined by the useful signal powers of all points; and determining (S106), by the network side, the CQI value used for coordinated multi-point transmission/reception according to the correlation coefficient and the independent CQI value of each point or normalized useful signal power. feeding back (S102), by a receiving side, an independent CQI value or normalized useful signal power of each point of all or part of points in a COMP measurement set or reporting set to a network side; feeding back (S104), by the receiving side, a correlation coefficient; characterized in that the correlation coefficient is the average value calculated according to all the correlation coefficients between the channel of each point and the channel of a master serving point and corresponding weight values determined by the useful signal powers of all points; and determining (S106), by the network side, the CQI value used for coordinated multi-point transmission/reception according to the correlation coefficient and the independent CQI value of each point or normalized useful signal power.
A plasma reactor system for the conversion of one or more reactants into products, comprising: a catalyzing or seeding unit; a source of electrons, easily ionizable materials or both electrons and ionizable materials in communication with said catalyzing or seeding unit, wherein easily ionizable materials are defined as atoms and molecules having an ionization energy less than 5.5 eV; a tornado inlet unit having a tornado chamber inlet; a plasma reactor; and a second stage reactor unit disposed downstream from the plasma reactor; wherein a first portion of reactants enters the catalyzing or seeding unit, wherein the catalyzing or seeding unit introduces a flow of the electrons, the easily ionizable materials, or both the electrons and the easily ionizable materials into the first portion of reactants; wherein an output of the catalyzing or seeding unit is in communication with the tornado inlet unit; wherein a second portion of reactants enter the tornado inlet unit via the tornado chamber inlet, wherein an outlet of the tornado inlet unit yields swirl velocities and is in communication with the plasma reactor; wherein the plasma reactor increases the temperature of the first portion of reactants and the second portion of reactants; wherein the plasma reactor, the second stage reactor unit, or both the plasma reactor and the second stage reactor unit are configured to convert the first portion of reactants and the second portion of reactants into a product, wherein the molecular composition of the first portion of reactants have a molecular composition different from that of the product. a catalyzing or seeding unit; a source of electrons, easily ionizable materials or both electrons and ionizable materials in communication with said catalyzing or seeding unit, wherein easily ionizable materials are defined as atoms and molecules having an ionization energy less than 5.5 eV; a tornado inlet unit having a tornado chamber inlet; a plasma reactor; and a second stage reactor unit disposed downstream from the plasma reactor; wherein a first portion of reactants enters the catalyzing or seeding unit, wherein the catalyzing or seeding unit introduces a flow of the electrons, the easily ionizable materials, or both the electrons and the easily ionizable materials into the first portion of reactants; wherein an output of the catalyzing or seeding unit is in communication with the tornado inlet unit; wherein a second portion of reactants enter the tornado inlet unit via the tornado chamber inlet, wherein an outlet of the tornado inlet unit yields swirl velocities and is in communication with the plasma reactor; wherein the plasma reactor increases the temperature of the first portion of reactants and the second portion of reactants; wherein the plasma reactor, the second stage reactor unit, or both the plasma reactor and the second stage reactor unit are configured to convert the first portion of reactants and the second portion of reactants into a product, wherein the molecular composition of the first portion of reactants have a molecular composition different from that of the product.
Sealed device for protecting and dispensing pasty or creamy products , which device is composed mainly of a reservoir which contains the product and is capable of receiving at its bottom end a longitudinally movable sealing plug , said reservoir is movable longitudinally like a piston and in accordance with a stroke (Y) in a pump body , and in which either it is forced into a closed position by a spring element which cooperates in compression with an outer lateral projection of the reservoir , or the base provides a spring function by means of at least one resilient tab which is formed on the wall and cooperates with the lower face , or the reservoir provides a spring function by means of at least one resilient tab which is formed on the lateral wall and secured to a lower ring formed by an outer lateral projection which cooperates with the groove so as to secure the ring to the pump body , and characterised in that the top of the lateral wall of the base is secured to the pump body by means of at least one outer projection which is complementary to an inner and lower groove of the pump body , the pump body being formed of a resiliently deformable upper membrane which provides a pump function and, in its upper lateral wall , of a lateral opening for dispensing the product , the reservoir and the pump body , when fitted together, forming means capable of circulating the product through a compression chamber (C) fed by at least one upper inlet orifice situated in the upper closing wall of the reservoir which cooperates with the inner closing face , the device being so arranged that, for a use of the device , dispensing of the product through the opening is effected when a pumping pressure (P) is exerted on the upper membrane , said pressure transmitted to the product contained in the compression chamber (C) forces the reservoir to be displaced longitudinally in the pump body in accordance with a stroke (Y), thus partially freeing the opening through which the product is dispensed, and that, when the pressure (P) disappears and the reservoir , under the force of the spring element , closes again in a sealed manner on the pump body with the upper closing wall which cooperates with the inner closing face , the product is drawn in again through the orifice in order to fill the compression chamber (C) under the effect of the negative pressure created by the upper membrane , which assumes its original shape again.
A hub configured for selective wireless communication over any channel of a plurality of wireless communication channels, the hub being configured to: transmit a response request, the response request comprising a request for at least one or any device receiving and processing at least part of the response request to transmit a response over a listening period; during the listening period, listen to each channel of the plurality of channels; and determine an activity characteristic for each channel based, at least in part, on activity received by the hub on the respective channel during the listening period transmit a response request, the response request comprising a request for at least one or any device receiving and processing at least part of the response request to transmit a response over a listening period; during the listening period, listen to each channel of the plurality of channels; and determine an activity characteristic for each channel based, at least in part, on activity received by the hub on the respective channel during the listening period
An cork plank automatic ejection module , comprising a frame that comprises a cork plank inlet and a first cork plank outlet through which said planks are ejected out of the module , characterized in that it further comprises a cork plank extracting member able to be displaced along two overlapping planes (PI, P2), wherein a first plane (P1) defines an advance direction of the extracting member for ejection of a cork plank, through the first cork plank outlet , and a second plane (P2) disposed above first plane (P1) defines a rearward direction of the extracting member .
A lighting device comprising a housing ; and a flexible elongated carrier having a first side and a second side , comprising a plurality of first sections , each first section comprising a plurality of solid state lighting elements , arranged on the first side of the elongated carrier, wherein each first section is arranged at a distance (d1) from a surface of the housing; and a plurality of second sections , each second section being at least in part attached to the surface of the housing; and wherein the first sections and the second sections are alternatingly arranged in a succession along a longitudinal extension (LE) of the elongated carrier; and wherein the elongated carrier has been bent and/or folded at at least some of the second sections such that the elongated carrier has a shape in accordance with a shape of a spiral as seen from above the surface of the housing, characterised in that at least some of the second sections have been bent and/or folded at least twice. a housing ; and a flexible elongated carrier having a first side and a second side , comprising a plurality of first sections , each first section comprising a plurality of solid state lighting elements , arranged on the first side of the elongated carrier, wherein each first section is arranged at a distance (d1) from a surface of the housing; and a plurality of second sections , each second section being at least in part attached to the surface of the housing; and wherein the first sections and the second sections are alternatingly arranged in a succession along a longitudinal extension (LE) of the elongated carrier; and wherein a plurality of first sections , each first section comprising a plurality of solid state lighting elements , arranged on the first side of the elongated carrier, wherein each first section is arranged at a distance (d1) from a surface of the housing; and a plurality of second sections , each second section being at least in part attached to the surface of the housing; and wherein the first sections and the second sections are alternatingly arranged in a succession along a longitudinal extension (LE) of the elongated carrier; and wherein the elongated carrier has been bent and/or folded at at least some of the second sections such that the elongated carrier has a shape in accordance with a shape of a spiral as seen from above the surface of the housing, characterised in that at least some of the second sections have been bent and/or folded at least twice.
A method for in vitro propagation of Babesia microti, the method comprising incubating B. microti in culture medium comprising host erythrocytes in the presence of a source of complement and a source of anti- B . microti IgM antibody, wherein the source of the anti- B . microti IgM antibody has between about 0% and 10% IgG antibody, and wherein the source of complement comprises a cell or cell line that is co-cultured with the host erythrocytes, and wherein the cell or cell line secretes complement into the culture medium.
A method for operating a cellular network , the method comprising: at a core network element of the cellular network: causing a radio access network, RAN, to transmit, to a User Equipment device, UE , a file via a Multimedia Broadcast Multicast Service ,MBMS download session; receiving, from the UE, a Session Initiation Protocol, SIP, re-invite requesting initiation of a file repair of the file; and in response to the SIP re-invite requesting initiation of the file repair: selecting a HyperText Transfer Protocol to SIP, HTTP/SIP, adapter and generating a SIP INVITE request to the selected HTTP/SIP adapter, wherein a 'to' header of the SIP INVITE request includes a same Request- Uniform Resource Identifier (URI) of the SIP re-invite request; and sending the SIP INVITE request to the selected HTTP/SIP Adapter; and tearing down the MBMS download session responsive to the SIP re-invite request. causing a radio access network, RAN, to transmit, to a User Equipment device, UE , a file via a Multimedia Broadcast Multicast Service ,MBMS download session; receiving, from the UE, a Session Initiation Protocol, SIP, re-invite requesting initiation of a file repair of the file; and in response to the SIP re-invite requesting initiation of the file repair: selecting a HyperText Transfer Protocol to SIP, HTTP/SIP, adapter and generating a SIP INVITE request to the selected HTTP/SIP adapter, wherein a 'to' header of the SIP INVITE request includes a same Request- Uniform Resource Identifier (URI) of the SIP re-invite request; and sending the SIP INVITE request to the selected HTTP/SIP Adapter; and tearing down the MBMS download session responsive to the SIP re-invite request. selecting a HyperText Transfer Protocol to SIP, HTTP/SIP, adapter and generating a SIP INVITE request to the selected HTTP/SIP adapter, wherein a 'to' header of the SIP INVITE request includes a same Request- Uniform Resource Identifier (URI) of the SIP re-invite request; and sending the SIP INVITE request to the selected HTTP/SIP Adapter; and tearing down the MBMS download session responsive to the SIP re-invite request.
A battery cell , comprising: an electrode assembly , having a first tab ; a housing , having an opening, with the housing configured for accommodating the electrode assembly ; and an end cap , comprising a cap body and a first convex part , wherein the cap body is configured for connecting with the housing and covering the opening, the first convex part protrudes from an inner surface of the cap body towards the electrode assembly and abuts against the first tab ; the end cap is provided with a liquid injection hole , and the liquid injection hole is configured for allowing electrolyte solution to enter an interior of the battery cell from outside of the battery cell , and the liquid injection hole is located inside of an outer peripheral surface of the first convex part , wherein the first convex part is provided with a flow guiding channel , the flow guiding channel communicates with the liquid injection hole and penetrates the outer peripheral surface, and the flow guiding channel is configured for allowing at least part of the electrolyte solution to flow to outside of the outer peripheral surface, characterised in that the electrode assembly has a central hole , and in a thickness direction (Z) of the end cap , the central hole and the liquid injection hole are disposed opposite to each other, wherein the central hole is provided coaxially with the liquid injection hole , and the diameter of the liquid injection hole is smaller than that of the central hole . an electrode assembly , having a first tab ; a housing , having an opening, with the housing configured for accommodating the electrode assembly ; and an end cap , comprising a cap body and a first convex part , wherein the cap body is configured for connecting with the housing and covering the opening, the first convex part protrudes from an inner surface of the cap body towards the electrode assembly and abuts against the first tab ; the end cap is provided with a liquid injection hole , and the liquid injection hole is configured for allowing electrolyte solution to enter an interior of the battery cell from outside of the battery cell , and the liquid injection hole is located inside of an outer peripheral surface of the first convex part , wherein the first convex part is provided with a flow guiding channel , the flow guiding channel communicates with the liquid injection hole and penetrates the outer peripheral surface, and the flow guiding channel is configured for allowing at least part of the electrolyte solution to flow to outside of the outer peripheral surface, characterised in that the electrode assembly has a central hole , and in a thickness direction (Z) of the end cap , the central hole and the liquid injection hole are disposed opposite to each other, wherein the central hole is provided coaxially with the liquid injection hole , and the diameter of the liquid injection hole is smaller than that of the central hole .
A vehicle including a vehicle body , a front wheel that is disposed anterior to the vehicle body and that is steerable about a steering axis (Cs), and a front fork that supports the front wheel , the vehicle body including a vehicle body frame and a steering rotation unit that is supported on the vehicle body frame and that rotates about the steering axis (Cs), wherein the vehicle comprises: a variable trail length mechanism that varies a trail length (t) of the front wheel , the variable trail length mechanism including an oscillation shaft that extends in a vehicle width direction to thereby connect the front fork oscillatably with the steering rotation unit , wherein the oscillation shaft is disposed at a position overlapping an axis of the front fork in a vehicle side elevational view, characterised in that the front fork constitutes an electronic control suspension capable of changing an axial length of the front fork, the vehicle further comprising: a control apparatus that drives the electronic control suspension so as to minimize a change in a vehicle height corresponding to the change in the vehicle height by an operation of the variable trail length mechanism . a variable trail length mechanism that varies a trail length (t) of the front wheel , the variable trail length mechanism including an oscillation shaft that extends in a vehicle width direction to thereby connect the front fork oscillatably with the steering rotation unit , wherein the oscillation shaft is disposed at a position overlapping an axis of the front fork in a vehicle side elevational view, characterised in that the front fork constitutes an electronic control suspension capable of changing an axial length of the front fork, the vehicle further comprising: a control apparatus that drives the electronic control suspension so as to minimize a change in a vehicle height corresponding to the change in the vehicle height by an operation of the variable trail length mechanism .
An abrasive article , comprising: an abrasive portion having an organic bond and abrasive particles; and a reinforcement , wherein the reinforcement comprises chopped strand fibers (CSF) coated with a thermoplastic coating, wherein the CSF further comprises a direct size coating , and the thermoplastic coating is a secondary coating on the direct size coating , characterized in that the direct size coating has a loss on ignition (LOI) of less than 2.0 wt% and the thermoplastic coating has a loss on ignition (LOI) of at least 2.4 wt%. an abrasive portion having an organic bond and abrasive particles; and a reinforcement , wherein the reinforcement comprises chopped strand fibers (CSF) coated with a thermoplastic coating, wherein the CSF further comprises a direct size coating , and the thermoplastic coating is a secondary coating on the direct size coating , characterized in that the direct size coating has a loss on ignition (LOI) of less than 2.0 wt% and the thermoplastic coating has a loss on ignition (LOI) of at least 2.4 wt%.
A method for producing a wiping product comprising: forming a nonwoven web from an aqueous suspension of fibers, the aqueous suspension of fibers comprising cellulosic fibers combined with synthetic staple fibers, the synthetic staple fibers comprising a thermoplastic polymer; hydraulically entangling the web formed from the aqueous suspension of fibers to form a hydroentangled web having a first side and a second side; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the first side of the web; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the second side of the web; and through-air drying the web to form a wiping product, the dried web containing the cellulosic fibers in an amount from 60% to 80% by weight; wherein the wiping product does not contain any continuous filaments. forming a nonwoven web from an aqueous suspension of fibers, the aqueous suspension of fibers comprising cellulosic fibers combined with synthetic staple fibers, the synthetic staple fibers comprising a thermoplastic polymer; hydraulically entangling the web formed from the aqueous suspension of fibers to form a hydroentangled web having a first side and a second side; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the first side of the web; further hydraulically entangling the hydroentangled web by applying hydraulic energy to the second side of the web; and through-air drying the web to form a wiping product, the dried web containing the cellulosic fibers in an amount from 60% to 80% by weight; wherein the wiping product does not contain any continuous filaments.
Compound of general structure (I): wherein - L is a linker comprising 1 to 10 optionally substituted backbone atoms selected from carbon, nitrogen and oxygen, wherein L is selected from -CHR 2 '-C(O)- (L 18 ), -CHR 2 '-CH 2 - (L 19 ), or -CHR 2 '-CH 2 -CH 2 - (L 21 ), - R 1 is selected from H, C 1 - C 6 alkyl or C 1 - C 6 alkenyl, and R 2 is joined with R 2 ' in a 5-8-membered cyclic structure wherein this connection between R 2 and R 2 ' is a -CH 2 -CH 2 - or -CH 2 -CH 2 -CH 2 - bridge; - R 3 is selected from H, C 1 - C 6 alkyl or C 1 - C 6 alkenyl, wherein the alkyl or alkenyl moiety may be substituted with one or more halogen atoms or (halo)alkoxy moieties; and - R 4 is selected from H or C 1 - C 6 alkyl, wherein the alkyl moiety may be substituted with one or more halogen atoms or (halo)alkoxy moieties and - X is an anion. - L is a linker comprising 1 to 10 optionally substituted backbone atoms selected from carbon, nitrogen and oxygen, wherein L is selected from -CHR 2 '-C(O)- (L 18 ), -CHR 2 '-CH 2 - (L 19 ), or -CHR 2 '-CH 2 -CH 2 - (L 21 ), - R 1 is selected from H, C 1 - C 6 alkyl or C 1 - C 6 alkenyl, and R 2 is joined with R 2 ' in a 5-8-membered cyclic structure wherein this connection between R 2 and R 2 ' is a -CH 2 -CH 2 - or -CH 2 -CH 2 -CH 2 - bridge; - R 3 is selected from H, C 1 - C 6 alkyl or C 1 - C 6 alkenyl, wherein the alkyl or alkenyl moiety may be substituted with one or more halogen atoms or (halo)alkoxy moieties; and - R 4 is selected from H or C 1 - C 6 alkyl, wherein the alkyl moiety may be substituted with one or more halogen atoms or (halo)alkoxy moieties and - X is an anion.