mhurhangee/patent-ind-claim-en huggingface dataset:
An expandable spinal implant , comprising: a body having an upper plate and a lower plate connected together by an elastically deformable hinge , each of the plates including an inner ramped surface , the implant further having a channel for receiving a lever pin or an actuator pin; and a lever pin or an actuator pin comprising a shaft having at one end a keyed surface , characterised in that the lever pin or actuator pin further includes at an opposed end an enlarged, oblong cross-sectional shaped tip, the shaped tip further including an exterior adjustment surface configured to cooperate with the ramped surfaces of the plates upon rotation to urge the plates apart to an expanded position, thereby expanding the implant. a body having an upper plate and a lower plate connected together by an elastically deformable hinge , each of the plates including an inner ramped surface , the implant further having a channel for receiving a lever pin or an actuator pin; and a lever pin or an actuator pin comprising a shaft having at one end a keyed surface , characterised in that the lever pin or actuator pin further includes at an opposed end an enlarged, oblong cross-sectional shaped tip, the shaped tip further including an exterior adjustment surface configured to cooperate with the ramped surfaces of the plates upon rotation to urge the plates apart to an expanded position, thereby expanding the implant.
A control system for controlling the blood flow rate in a blood supply system in which a first pump is provided to transport blood from a reservoir via a first passage at a flow rate toward a plurality of outlets of which one or more of the outlets are openable to permit flow through the outlet and closable to block flow through the outlet, wherein the control system comprises a monitoring arrangement to determine a flow value representative of the flow rate through a first outlet of the plurality of outlets, one or more outlet pumps , each outlet pump provided to transport blood through an outlet , and a controller responsive to the monitoring arrangement, wherein the monitoring arrangement is configured to determine an outlet flow rate from outlet pump parameters or by analysing an operational status of the one or more outlet pumps, and wherein the flow value is determined based on the one or more outlet flow rates; whereby the controller is configured to control contemporaneously or proactively the first pump to maintain the flow rate through the first outlet at a pre-determined level.
An accessory device (140; 240; 440; 540; 640) for enabling a user of a mobile telecommunications terminal to communicate voice hands-free, the accessory device comprising: communication means for establishing a communications link, between the accessory device and the mobile telecommunications terminal (100; 200), for transferring audio data from the accessory device to the mobile telecommunications terminal; media processing circuitry (245; 445; 545; 645) for performing at least one of an echo cancelling algorithm or a frequency equalizing algorithm on the audio data; and means for taking control of at least one of echo cancelling functionality or frequency equalizing functionality from the mobile telecommunications terminal, following disablement of at least one of echo cancelling functionality or frequency equalizing functionality in the mobile telecommunications terminal or following the mobile telecommunications terminal delegating at least one of echo cancelling functionality or frequency equalizing functionality to the accessory device. communication means for establishing a communications link, between the accessory device and the mobile telecommunications terminal (100; 200), for transferring audio data from the accessory device to the mobile telecommunications terminal; media processing circuitry (245; 445; 545; 645) for performing at least one of an echo cancelling algorithm or a frequency equalizing algorithm on the audio data; and means for taking control of at least one of echo cancelling functionality or frequency equalizing functionality from the mobile telecommunications terminal, following disablement of at least one of echo cancelling functionality or frequency equalizing functionality in the mobile telecommunications terminal or following the mobile telecommunications terminal delegating at least one of echo cancelling functionality or frequency equalizing functionality to the accessory device.
An interference randomization method, comprising: receiving (S302), by a terminal device, interference randomization configuration information, wherein the interference randomization configuration information comprises a receiving mode of a reference signal and configuration information in at least two time periods, receiving modes of the reference signal in the at least two time periods are different, and the receiving mode is used to indicate a mode in which the terminal device receives the reference signal on a reference signal resource or a reference signal resource set; and receiving (S305), by the terminal device, the reference signal in the receiving mode determined based on the interference randomization configuration information, wherein the receiving mode comprises one of a beam rotation mode, a beam muting mode, or a beam switching mode. receiving (S302), by a terminal device, interference randomization configuration information, wherein the interference randomization configuration information comprises a receiving mode of a reference signal and configuration information in at least two time periods, receiving modes of the reference signal in the at least two time periods are different, and the receiving mode is used to indicate a mode in which the terminal device receives the reference signal on a reference signal resource or a reference signal resource set; and receiving (S305), by the terminal device, the reference signal in the receiving mode determined based on the interference randomization configuration information, wherein the receiving mode comprises one of a beam rotation mode, a beam muting mode, or a beam switching mode.
A roll tarp system for a truck or trailer having a container with a rear door , the roll tarp system comprising: an axle assembly ; a roll tarp mounted on the axle assembly , attached to one side of the container , and adapted to cover the contents of the container ; a rear arm pivotally attached to the rear door ; a cable coupler assembly rotatably coupled to the axle assembly and having first and second hinge members; a flexible cable with a first end attached to the rear arm and a second end attached to the second hinge member of the cable coupler assembly ; charcterized in that the first hinge member comprises a first hinge plate rotatably coupled to the axle assembly , and wherein the first hinge plate defines a first aperture , wherein the roll tarp system further comprises a manual drive shaft coupled to the axle assembly and extending through first aperture , wherein the second hinge member is pivotally coupled to the first hinge member, and wherein the second hinge member comprises a hinge outer plate or a cable cap . an axle assembly ; a roll tarp mounted on the axle assembly , attached to one side of the container , and adapted to cover the contents of the container ; a rear arm pivotally attached to the rear door ; a cable coupler assembly rotatably coupled to the axle assembly and having first and second hinge members; a flexible cable with a first end attached to the rear arm and a second end attached to the second hinge member of the cable coupler assembly ; charcterized in that the first hinge member comprises a first hinge plate rotatably coupled to the axle assembly , and wherein the first hinge plate defines a first aperture , wherein the roll tarp system further comprises a manual drive shaft coupled to the axle assembly and extending through first aperture , wherein the second hinge member is pivotally coupled to the first hinge member, and wherein the second hinge member comprises a hinge outer plate or a cable cap .
A frictional power-transmission belt comprising a compression layer and a knitted fabric , wherein a surface of the compression layer is covered with the knitted fabric , the knitted fabric has an overlapping portion in which one end and another end of the knitted fabric overlap each other, the overlapping portion has an adhesion region containing an adhesive component that adheres the one end and the other end of the knitted fabric to each other, and characterized in that the overlapping portion further has a non-adhesion region in which the one end and the other end of the knitted fabric are not adhered to each other. wherein a surface of the compression layer is covered with the knitted fabric , the knitted fabric has an overlapping portion in which one end and another end of the knitted fabric overlap each other, the overlapping portion has an adhesion region containing an adhesive component that adheres the one end and the other end of the knitted fabric to each other, and characterized in that the overlapping portion further has a non-adhesion region in which the one end and the other end of the knitted fabric are not adhered to each other.
A compression molding process for carbon fiber pre-impregnated materials, comprising: providing at least one pre-impregnated first ply; providing a plurality of pre-impregnated sub-plies below the first ply, said first ply and sub-plies have a predetermined orientation of either 0° or 90°; providing at least one impregnated veil incorporated into a predetermined surface of at least one ply of the pre-impregnated materials; cutting and/or pre-forming the pre-impregnated materials with the impregnated veil to a predetermined shape; and compression molding the cut and/or pre-formed pre-impregnated materials with the impregnated veil under predetermined clamping pressure and temperature ranges to form a part; wherein there are at least two impregnated veils incorporated into different surfaces of the first ply and/or sub-plies at predetermined locations and one of the impregnated veils is located between the first ply and a second ply, and another of the impregnated veils is located between a bottom ply and the ply above the bottom ply. providing at least one pre-impregnated first ply; providing a plurality of pre-impregnated sub-plies below the first ply, said first ply and sub-plies have a predetermined orientation of either 0° or 90°; providing at least one impregnated veil incorporated into a predetermined surface of at least one ply of the pre-impregnated materials; cutting and/or pre-forming the pre-impregnated materials with the impregnated veil to a predetermined shape; and compression molding the cut and/or pre-formed pre-impregnated materials with the impregnated veil under predetermined clamping pressure and temperature ranges to form a part; wherein there are at least two impregnated veils incorporated into different surfaces of the first ply and/or sub-plies at predetermined locations and one of the impregnated veils is located between the first ply and a second ply, and another of the impregnated veils is located between a bottom ply and the ply above the bottom ply.
A low voltage power distribution system to supply power between electrical modules via a conductive contact of one of the electrical modules , for use with a first low voltage power conductor , the low voltage power distribution system comprising: a clamp that includes a clamp body and a clamp spacer ; the clamp spacer being formed as an single, integral conductive component, characterized in that the clamp spacer includes a base portion and at least two legs that extend from two opposing sides of the base portion ; the base portion being configured to provide electrical conduction between the first low voltage power conductor and the conductive contact , with the legs extending away from the conductive contact along opposing sides of the first low voltage power conductor to limit deformation of the first low voltage power conductor upon compression of the lower voltage power conductor by the clamp body . a clamp that includes a clamp body and a clamp spacer ; the clamp spacer being formed as an single, integral conductive component, characterized in that the clamp spacer includes a base portion and at least two legs that extend from two opposing sides of the base portion ; the base portion being configured to provide electrical conduction between the first low voltage power conductor and the conductive contact , with the legs extending away from the conductive contact along opposing sides of the first low voltage power conductor to limit deformation of the first low voltage power conductor upon compression of the lower voltage power conductor by the clamp body .
A method, of a network node , for providing, in a control plane for a terminal, connection management for at least a first network access entity and a second network access entity, wherein said at least first network access entity and second network access entity providing radio access for user plane data transfer for said terminal and being connectable to said network node, wherein said terminal being capable of having radio access to said at least first network access entity and second network access entity for user plane data transfer, the method comprising terminating (S61) at least one control plane signaling connection from said terminal for said at least first network access entity and second network access entity, maintaining (S62) a common terminal related access stratum context for radio accesses of said terminal to said at least first network access entity and second network access entity, and initiating (S63) switching of said radio access of said terminal from said first network access entity to said second network access entity for user plane data transfer with said control plane signaling connection for said second network access entity being applied unchanged. the method comprising terminating (S61) at least one control plane signaling connection from said terminal for said at least first network access entity and second network access entity, maintaining (S62) a common terminal related access stratum context for radio accesses of said terminal to said at least first network access entity and second network access entity, and initiating (S63) switching of said radio access of said terminal from said first network access entity to said second network access entity for user plane data transfer with said control plane signaling connection for said second network access entity being applied unchanged.
A corona discharge apparatus comprising: (a) an elongate inner electrode , (b) an elongate dielectric sleeve mounted on the inner electrode , (c) an elongate outer electrode mounted on the dielectric sleeve , and (d) an ozone-producing region over which the outer electrode extends, the ozone-producing region having an inlet end and an outlet end , characterized in that the ozone-producing region is defined by three sealing members at the inlet end thereof and three sealing members at the outlet end thereof, the sealing members forming a seal between the inner electrode and the dielectric sleeve , and wherein an outer surface of the inner electrode located within the ozone-producing region is smooth. (a) an elongate inner electrode , (b) an elongate dielectric sleeve mounted on the inner electrode , (c) an elongate outer electrode mounted on the dielectric sleeve , and (d) an ozone-producing region over which the outer electrode extends, the ozone-producing region having an inlet end and an outlet end ,
An olefin polymerization process to produce an ethylene copolymer, the process comprising contacting ethylene and at least one alpha olefin having from 3-8 carbon atoms with a polymerization catalyst in a gas phase reactor; wherein the ethylene copolymer has a density of from 0.916 g/cm 3 to 0.936 g/cm 3 , a melt index (I 2 ) of from 0.1 g/10min to 2.0 g/10min, a melt flow ratio (I 21 /I 2 ) of greater than 22 but less than 42, a molecular weight distribution (M w /M n ) of from 2.3 to 5.0, a reverse comonomer distribution profile as determined by GPC-FTIR, and a composition distribution breadth index CDBI 50 of from 45 wt% to 80 wt% as determined by TREF; the polymerization catalyst comprises a phosphinimine catalyst, a passivated support and a co-catalyst; and the passivated support comprises silica which has been treated with i) an organoaluminum compound and ii) magnesium chloride; wherein the magnesium chloride is generated by addition of a diorganomagnesium compound and a source of chloride to the organoaluminum treated silica, provided that the source of chloride is not a transition metal chloride; and wherein the phosphinimine catalyst has the formula: (1-R ¥ -Indenyl)((t-Bu) 3 P=N)TiX 2 , where R ¥ is an alkyl group, an aryl group or a benzyl group and wherein each of the alkyl group, the aryl group, and the benzyl group is unsubstituted or is substituted by at least one fluoride atom; and X is an activatable ligand.
A silsesquioxane resin wherein the silsesquioxane resin is comprised of the units (Ph(CH 2 ) r SiO (3-x)/2 (OR") x ) m (HSiO (3-X)/2 (OR") x ) n (MeSiO (3-x)/2 (OR") x ) o (RSiO (3-x)/2 (OR") x ) p (R 1 SiO (3-x)/2 (OR") x ) q where Ph is a phenyl group, Me is a methyl group; R" is hydrogen atom or a hydrocarbon group having from 1 to 4 carbon atoms; R is selected from a hydroxyl producing group; and R 1 is selected from substituted phenyl groups, ester groups, polyether groups, mercapto groups, aryl sulphonic ester groups, carboxylic acid containing groups, and reactive or curable organic functional groups; and r has a value of 0, 1, 2, 3, or 4; x has a value of 0, 1 or 2; wherein in the resin m has a value of >0.0 to 0.95; n has a value of 0.05 to 0.95; o has a value of 0 to 0.95; p has a value of 0.05 to 0.5; q has a value of 0 to 0.5; and m + n + o + p + q ≈ 1; wherein the hydroxyl producing group, R, has the formula -R 2 OR 3 where R 2 is any organic bridging group and R 3 is a protecting group selected from t-butyl, methoxy methyl, tetrahydropyranyl, benzyloxymethyl, cinnamyl, triphenylmethyl, trimethylsilyl, t-butyldimethylsilyl and a carboxylic anhydride. where Ph is a phenyl group, Me is a methyl group; R" is hydrogen atom or a hydrocarbon group having from 1 to 4 carbon atoms; R is selected from a hydroxyl producing group; and R 1 is selected from substituted phenyl groups, ester groups, polyether groups, mercapto groups, aryl sulphonic ester groups, carboxylic acid containing groups, and reactive or curable organic functional groups; and r has a value of 0, 1, 2, 3, or 4; x has a value of 0, 1 or 2; wherein in the resin m has a value of >0.0 to 0.95; n has a value of 0.05 to 0.95; o has a value of 0 to 0.95; p has a value of 0.05 to 0.5; q has a value of 0 to 0.5; and m + n + o + p + q ≈ 1; wherein the hydroxyl producing group, R, has the formula -R 2 OR 3 where R 2 is any organic bridging group and R 3 is a protecting group selected from t-butyl, methoxy methyl, tetrahydropyranyl, benzyloxymethyl, cinnamyl, triphenylmethyl, trimethylsilyl, t-butyldimethylsilyl and a carboxylic anhydride.
An end plate of a battery module comprising a main body and an energy absorbing body , wherein the energy absorbing body comprises an acting portion and a connecting portion , the acting portion protrudes in a direction from the main body toward a battery , and the acting portion is connected with the main body through the connecting portion , and wherein the connecting portion is structured in a strip shape, one end of the connecting portion is fixedly connected with the main body , and the other end of the connecting portion is fixed at an edge of the acting portion .
A method of controlling a pump driven by a motor , the pump in fluid communication with a fluid system, the method comprising: determining whether an operating frequency of the motor has reached a steady state operating frequency, the steady state operating frequency determined by a controller ; monitoring a time after the motor has reached the steady state operating frequency by incrementing a boost delay timer; causing the pump to temporarily boost a pressure in the fluid system to a temporary boost set point once the motor has reached the steady state operating frequency and the boost delay timer has expired, the temporary boost set point being greater than a pressure set point; restarting monitoring the time after the motor is no longer operating at the steady state operating frequency by resetting the boost delay timer; determining whether the temporarily boosted pressure in the fluid system stays above the pressure set point after the pump has stopped the temporary boost; and causing the pump to enter a sleep mode when the temporarily boosted pressure stays above the pressure set point after the pump has stopped the temporary boost. determining whether an operating frequency of the motor has reached a steady state operating frequency, the steady state operating frequency determined by a controller ; monitoring a time after the motor has reached the steady state operating frequency by incrementing a boost delay timer; causing the pump to temporarily boost a pressure in the fluid system to a temporary boost set point once the motor has reached the steady state operating frequency and the boost delay timer has expired, the temporary boost set point being greater than a pressure set point; restarting monitoring the time after the motor is no longer operating at the steady state operating frequency by resetting the boost delay timer; determining whether the temporarily boosted pressure in the fluid system stays above the pressure set point after the pump has stopped the temporary boost; and causing the pump to enter a sleep mode when the temporarily boosted pressure stays above the pressure set point after the pump has stopped the temporary boost.