mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible printed circuit comprising: a flexible body having a proximal end and a distal end , wherein the proximal end is configured to be connected to a stationary object and the distal end is configured to be connected to a moving object that moves in relation to the stationary obj ect; a head end of the flexible printed circuit at the distal end of the flexible body ; and at least one line of symmetry associated with the flexible body and the head end , the line of symmetry defining lateral symmetry from the proximal end of the body to a distal end of the head end of the flexible printed circuit ; the head end comprising: a central opening at a center of the head end ; a plurality of elongated semi-circular cut-outs concentric with the central opening and the head end , the plurality of elongated semi-circular cut-outs being symmetrically arranged about the line of symmetry ; and a plurality of electrical connection pads located between an interior cut out of the plurality of elongated cutouts and the central opening of the head end . a flexible body having a proximal end and a distal end , wherein the proximal end is configured to be connected to a stationary object and the distal end is configured to be connected to a moving object that moves in relation to the stationary obj ect; a head end of the flexible printed circuit at the distal end of the flexible body ; and at least one line of symmetry associated with the flexible body and the head end , the line of symmetry defining lateral symmetry from the proximal end of the body to a distal end of the head end of the flexible printed circuit ; the head end comprising: a central opening at a center of the head end ; a plurality of elongated semi-circular cut-outs concentric with the central opening and the head end , the plurality of elongated semi-circular cut-outs being symmetrically arranged about the line of symmetry ; and a plurality of electrical connection pads located between an interior cut out of the plurality of elongated cutouts and the central opening of the head end . a central opening at a center of the head end ; a plurality of elongated semi-circular cut-outs concentric with the central opening and the head end , the plurality of elongated semi-circular cut-outs being symmetrically arranged about the line of symmetry ; and a plurality of electrical connection pads located between an interior cut out of the plurality of elongated cutouts and the central opening of the head end .
A composition for forming an organic film, comprising: a polymer having a partial structure shown by the following general formula as a repeating unit; and an organic solvent, wherein AR1 and AR2 each represent a benzene ring or a naphthalene ring which optionally have a substituent; each R represents a hydrogen atom or a monovalent organic group having 2 to 10 carbon atoms and an unsaturated bond; R' represents a single bond or W1; and W1 represents a divalent organic group having 6 to 80 carbon atoms and one or more aromatic rings. a polymer having a partial structure shown by the following general formula as a repeating unit; and an organic solvent, wherein AR1 and AR2 each represent a benzene ring or a naphthalene ring which optionally have a substituent; each R represents a hydrogen atom or a monovalent organic group having 2 to 10 carbon atoms and an unsaturated bond; R' represents a single bond or W1; and W1 represents a divalent organic group having 6 to 80 carbon atoms and one or more aromatic rings.
A card reader to be installed for use in a higher-level device , where a side with an insertion slot configured for a card is represented as a near side (X2), and an opposite side to the near side is represented as a deep side (X1), the card reader comprises a card transfer path where the card inserted through the insertion slot is transferred, and the card reader is characterized by comprising: a card insertion detecting mechanism , placed at a deep side of the insertion slot , configured to detect the card by way of switching from an OFF state to an ON state; a transfer roller , placed at a deeper side position than the card insertion detecting mechanism is, configured to transfer the card through the card transfer path ; a turn detecting mechanism configured to detect a turn of the transfer roller ; and a card detecting mechanism , placed at a deeper side position than the transfer roller is, configured to detect the card by way of switching from an OFF state to an ON state; wherein, if the card detecting mechanism switches from the OFF state to the ON state after the card insertion detecting mechanism switches from the OFF state to the ON state, even though no turn of the transfer roller is detected by the turn detecting mechanism , a control unit of the card reader is configured to send a control unit of the higher-level device an alarm signal for notifying that a skimming device has been inserted through the insertion slot . a card insertion detecting mechanism , placed at a deep side of the insertion slot , configured to detect the card by way of switching from an OFF state to an ON state; a transfer roller , placed at a deeper side position than the card insertion detecting mechanism is, configured to transfer the card through the card transfer path ; a turn detecting mechanism configured to detect a turn of the transfer roller ; and a card detecting mechanism , placed at a deeper side position than the transfer roller is, configured to detect the card by way of switching from an OFF state to an ON state; wherein, if the card detecting mechanism switches from the OFF state to the ON state after the card insertion detecting mechanism switches from the OFF state to the ON state, even though no turn of the transfer roller is detected by the turn detecting mechanism , a control unit of the card reader is configured to send a control unit of the higher-level device an alarm signal for notifying that a skimming device has been inserted through the insertion slot .
A mitral valve prosthesis comprising: a frame having an inflow portion , and a valve-retaining tubular portion , wherein in a deployed configuration the inflow portion of the frame radially extends from a first end of the valve-retaining tubular portion, and wherein the inflow portion of the frame comprises a plurality of s-shaped struts radially extending from the first end of the valve-retaining tubular portion in the deployed configuration, wherein a graft material encloses or lines the inflow portion of the frame. a frame having an inflow portion , and a valve-retaining tubular portion , wherein in a deployed configuration the inflow portion of the frame radially extends from a first end of the valve-retaining tubular portion, and wherein the inflow portion of the frame comprises a plurality of s-shaped struts radially extending from the first end of the valve-retaining tubular portion in the deployed configuration, wherein a graft material encloses or lines the inflow portion of the frame.
A non-aerosol foam pump for producing high quality foam sanitizer having more than about 50 percent of the dispensed foam bubbles with a size of less than about 250 μm, the foam pump comprising: a sequentially activated multi-diaphragm foam pump (206; 1100; 1206) having a liquid pump diaphragm (310A; 1106) for pumping a foamable sanitizer containing more than 30% by volume of ethanol, water and a surfactant; and two or more air pump diaphragms (310B, 310C; 1108) for pumping atmospheric air; wherein the liquid pump diaphragm (310A; 1106) operates first followed by sequential distributions by the air pump diaphragms (310B, 310C; 1108); a foam cartridge , wherein the foam cartridge (210; 1210; 1400) includes a plurality of sponges (1301A, 1301B; 1401A, 1401B), wherein at least two sponges have different properties; and a mixing chamber (325; 1130. 1225) for mixing the foamable sanitizer with the atmospheric air to form a foam having foam bubbles that is dispensed from the pump after being forced through the foam cartridge (210; 1210; 1400). a sequentially activated multi-diaphragm foam pump (206; 1100; 1206) having a liquid pump diaphragm (310A; 1106) for pumping a foamable sanitizer containing more than 30% by volume of ethanol, water and a surfactant; and two or more air pump diaphragms (310B, 310C; 1108) for pumping atmospheric air; wherein the liquid pump diaphragm (310A; 1106) operates first followed by sequential distributions by the air pump diaphragms (310B, 310C; 1108); a foam cartridge , wherein the foam cartridge (210; 1210; 1400) includes a plurality of sponges (1301A, 1301B; 1401A, 1401B), wherein at least two sponges have different properties; and a mixing chamber (325; 1130. 1225) for mixing the foamable sanitizer with the atmospheric air to form a foam having foam bubbles that is dispensed from the pump after being forced through the foam cartridge (210; 1210; 1400).
A method, at a downstream Data Over Cable Service Interface Specification, DOCSIS, Timing Protocol, DTP, client in a DOCSIS network, the method comprising: frequency synchronizing the DTP client to an upstream DTP server in the DOCSIS network by synchronizing a frequency of an interface on the DTP client to a downstream DOCSIS Quadrature Amplitude Modulation, QAM, carrier frequency received from the DTP server; characterised by time synchronizing the DTP client to the DTP server based on DOCSIS timing information received by the DTP client from the DTP server and based on one or more timing correction factors received at the DTP client, wherein the one more timing correction factors comprise DTP timestamp extensions, and wherein time synchronizing the DTP client to the DTP server comprises: recovering, at the DTP client, a DOCSIS timestamp transmitted from the DTP server; receiving the one or more DTP timestamp extensions from the DTP server, and generating a non-DOCSIS timestamp, based on the one or more DTP timestamp extensions; and generating , based on the frequency and time of the DTP client synchronized to the DTP server and the non-DOCSIS timestamp, a non-DOCSIS timing protocol signal at the output of the DTP client; wherein receiving the one or more DTP timestamp extensions comprises receiving higher order bits configured to align the DOCSIS timestamp with a protocol time reference point associated with the non-DOCSIS timing protocol signal; and receiving lower order bits configured to increase a resolution of the DOCSIS timestamp. frequency synchronizing the DTP client to an upstream DTP server in the DOCSIS network by synchronizing a frequency of an interface on the DTP client to a downstream DOCSIS Quadrature Amplitude Modulation, QAM, carrier frequency received from the DTP server; characterised by time synchronizing the DTP client to the DTP server based on DOCSIS timing information received by the DTP client from the DTP server and based on one or more timing correction factors received at the DTP client, wherein the one more timing correction factors comprise DTP timestamp extensions, and wherein time synchronizing the DTP client to the DTP server comprises: recovering, at the DTP client, a DOCSIS timestamp transmitted from the DTP server; receiving the one or more DTP timestamp extensions from the DTP server, and generating a non-DOCSIS timestamp, based on the one or more DTP timestamp extensions; and recovering, at the DTP client, a DOCSIS timestamp transmitted from the DTP server; receiving the one or more DTP timestamp extensions from the DTP server, and generating a non-DOCSIS timestamp, based on the one or more DTP timestamp extensions; and generating , based on the frequency and time of the DTP client synchronized to the DTP server and the non-DOCSIS timestamp, a non-DOCSIS timing protocol signal at the output of the DTP client;
A straight bevel gear comprising: a gear body that includes: a hole disposed along an axis ; a set of gear teeth arranged around the hole , characterised in that members of the set of gear teeth are provided with a spherical involute configuration that includes a true spherical involute gear tooth profile; and a first web that is disposed between the hole and an outside diameter of the set of gear teeth , wherein the first web extends between two adjacent members of the set of gear teeth such that the first web is completely curved in a plane that includes the axis and that bisects a gap between the two adjacent members of the set of gear teeth . a hole disposed along an axis ; a set of gear teeth arranged around the hole , characterised in that members of the set of gear teeth are provided with a spherical involute configuration that includes a true spherical involute gear tooth profile; and a first web that is disposed between the hole and an outside diameter of the set of gear teeth , wherein the first web extends between two adjacent members of the set of gear teeth such that the first web is completely curved in a plane that includes the axis and that bisects a gap between the two adjacent members of the set of gear teeth .
A camera module , comprising: a first camera module ; a second camera module arranged side by side with the first camera module ; a first flexible printed circuit connected to the first camera module ; a second flexible printed circuit connected to the second camera module ; wherein at least one of the first flexible printed circuit and the second flexible printed circuit extends along the arrangement direction of the first camera module and the second camera module , wherein the second camera module comprises a second camera , a light guide component , and a frame , the frame accommodates and fixes the second camera and the light guide component , and the light guide component is disposed between the first camera module and the second camera . a first camera module ; a second camera module arranged side by side with the first camera module ; a first flexible printed circuit connected to the first camera module ; a second flexible printed circuit connected to the second camera module ; wherein at least one of the first flexible printed circuit and the second flexible printed circuit extends along the arrangement direction of the first camera module and the second camera module , wherein the second camera module comprises a second camera , a light guide component , and a frame , the frame accommodates and fixes the second camera and the light guide component , and the light guide component is disposed between the first camera module and the second camera .
A method implemented by a terminal, the method comprising: generating signaling for transmission via a reverse link communication channel; and mapping the signaling to resources for a reverse link signaling channel that blanks out traffic channels such that data is not sent on the traffic channels when it collides with the reverse link signaling channel, wherein the blanked out traffic channels comprise traffic channels assigned to the terminal and other terminals. generating signaling for transmission via a reverse link communication channel; and mapping the signaling to resources for a reverse link signaling channel that blanks out traffic channels such that data is not sent on the traffic channels when it collides with the reverse link signaling channel, wherein the blanked out traffic channels comprise traffic channels assigned to the terminal and other terminals.
A computer-implemented method of generating a continuous recording of a calling party's communications with first and second called parties, comprising: connecting an incoming call from a calling party to a first called party so that the calling party and the first called party can communicate with each other (S804, SI004); connecting the calling party to a second called party after the calling party has communicated with the first called party so that the calling party and the second called party can communicate with each other (S806, S1006); and generating a continuous recording of communications that originate from the calling party and are sent to the first and second called parties and communications that originate from the first and second called parties and are received by the calling party (S802-S810, S1002-S1010) characterised in that the step of generating a continuous recording (S802-S810, S1002-S1010) is performed by a voice application programming interface that is performing actions specified by a call control object . connecting an incoming call from a calling party to a first called party so that the calling party and the first called party can communicate with each other (S804, SI004); connecting the calling party to a second called party after the calling party has communicated with the first called party so that the calling party and the second called party can communicate with each other (S806, S1006); and generating a continuous recording of communications that originate from the calling party and are sent to the first and second called parties and communications that originate from the first and second called parties and are received by the calling party (S802-S810, S1002-S1010)
A linkage system (232; 432; 632) for a nacelle comprising: a link arm ; a pivot (330; 430) configured to extend through a second aperture disposed in the link arm ; a base member (310; 410; 610); and a retaining member (320; 420; 620) at least partially defining a first aperture and a cavity (342; 442), wherein the pivot (330; 430) is configured to extend at least partially into the first aperture , and wherein the cavity (342; 442) is configured to accommodate a portion of the link arm , characterised in that the retaining member (320; 420; 620) defines a first portion of the first aperture and the base member (310; 410; 610) defines a second portion of the first aperture , wherein the pivot (330; 430) is retained within the first aperture in response to the retaining member (320; 420; 620) being fastened to the base member (310; 410; 610). a link arm ; a pivot (330; 430) configured to extend through a second aperture disposed in the link arm ; a base member (310; 410; 610); and a retaining member (320; 420; 620) at least partially defining a first aperture and a cavity (342; 442), wherein the pivot (330; 430) is configured to extend at least partially into the first aperture , and wherein the cavity (342; 442) is configured to accommodate a portion of the link arm , characterised in that the retaining member (320; 420; 620) defines a first portion of the first aperture and the base member (310; 410; 610) defines a second portion of the first aperture , wherein the pivot (330; 430) is retained within the first aperture in response to the retaining member (320; 420; 620) being fastened to the base member (310; 410; 610).
A stent for a heart valve prosthesis , the stent having a contracted configuration and an expanded configuration, characterized in that , the stent comprises, along an axis direction of the stent , an inflow tract , an outflow tract and an intermediate section between the inflow tract and outflow tract, the outflow tract comprising an annular structure and at least two protrusions each formed by extending along the axis direction of the stent , the at least two protrusions each connected to one end of the annular structure away from the intermediate section , wherein a vacant area is defined between adjacent protrusions , wherein each protrusion has a stiffness gradually descending along a direction from the intermediate section to the outflow tract .
A method of operating a cellular repeater having a variable-gain donor antenna adapted to communicate with a base station , and a server antenna adapted to communicate with a mobile device , the method comprising: receiving a signal at the cellular repeater, the signal having a dynamically-changing input signal power level ; setting a gain of the cellular repeater to a predetermined first level, controlling, by the cellular repeater, a gain applied to the input signal power level based on the input power level; detecting, at the cellular repeater, an increase in the input signal power level of the signal during receipt of a first data burst; dropping, at the cellular repeater and in response to the detecting, the gain of the cellular repeater from its current level to a level lower than the current level; holding the gain of the cellular repeater at the lower level until an increase in the input signal power level of the signal is detected during receipt of a further data burst; the steps of dropping of the gain level of the cellular repeater followed by holding of the gain level are repeated for a number of received data bursts; and in response to an expiration of a period of time during which no input signal is received at the cellular repeater, gradually increasing the gain of the cellular repeater to the predetermined first level. receiving a signal at the cellular repeater, the signal having a dynamically-changing input signal power level ; setting a gain of the cellular repeater to a predetermined first level, controlling, by the cellular repeater, a gain applied to the input signal power level based on the input power level; detecting, at the cellular repeater, an increase in the input signal power level of the signal during receipt of a first data burst; dropping, at the cellular repeater and in response to the detecting, the gain of the cellular repeater from its current level to a level lower than the current level; holding the gain of the cellular repeater at the lower level until an increase in the input signal power level of the signal is detected during receipt of a further data burst; the steps of dropping of the gain level of the cellular repeater followed by holding of the gain level are repeated for a number of received data bursts; and in response to an expiration of a period of time during which no input signal is received at the cellular repeater, gradually increasing the gain of the cellular repeater to the predetermined first level.
Method for treatment of an iron melt in a converter, in which the iron melt during a blowing phase is treated by top-blowing of oxygen at the upper side and wherein at least during a time segment of the blowing phase an inert gas or a fluid containing an inert gas is blown into the melt at the base side of the converter by way of a plurality of base nozzles or side nozzles, wherein at least over a time period during this time segment of the blowing phase one half of the base or side nozzles is acted by a moderate inert gas fluid pressure, which produces a keeping-free scavenging gas quantity of inert gas which keeps free the throughput of one of these halves of base or side nozzles, and one half of the base or side nozzles is acted on by an inert gas fluid pressure which is elevated relative thereto and which produces the throughput of a standard scavenging gas quantity of inert gas, wherein during the time period of the time segment a pulsed scavenging procedure is carried out in which with fixed time periods in alternation and alternately one respective half of the base or side nozzles of a BOF converter or the side nozzles of an AOD converter is acted on by the moderate inert gas fluid pressure, which produces a keeping free scavenging gas quantity, and one respective half of the base or side nozzles is acted on by the inert gas fluid pressure which is elevated relative thereto and produces a standard scavenging gas quantity, wherein after elapsing of the fixed time period a reversal of the scavenging conditions takes place and for the same time period the base or side nozzles acted on by the moderate inert gas fluid pressure producing a keeping-free scavenging gas quantity is acted on by the elevated inert gas fluid pressure producing a standard scavenging gas quantity and the base or side nozzles acted on by the inert gas fluid pressure which is elevated relative thereto and produces a standard scavenging gas quantity is acted on by the moderate inert gas fluid pressure producing a keeping-free scavenging gas quantity.