mhurhangee/ep-ind-claims huggingface dataset:
A connector socket, in particular for a multi-contact connector, being intended for fastening to a panel, wherein the socket comprises: - a housing having a front face, a rear face, a top face, a bottom face, and two lateral faces, said housing extending according to an axis perpendicular to the front and rear faces, this axis X constituting the axis of the housing, said housing being configured to be received in part in an opening in the panel, and once received in said opening, the axis of the housing is perpendicular to the plane of the opening, - two hooking means (7, 8f), each comprising at least one hook (8, 8m, 8f) for fastening the housing, at least one hooking means being mounted on the housing to slide transversely to its axis between at least a retracted, release position and at least a deployed, fastening position; the two hooking means (7, 8f) moving apart from each other when at least the slidable hooking means slide from the retracted position towards the deployed position; - at least one tongue against which an operator's finger can bear extending from a lateral side of the housing, each tongue being connected to slidable hooking means in order to cause the hooking means to slide from a deployed position to a retracted position when an operator presses against the tongue; and the socket being characterized in that it comprises at least one spring distinct from the hooking means (7, 8f), each spring having one end connected to the housing and its other end connected to corresponding slidable hooking means and exerting a thrust force thereon transversely to the axis of the housing, at least when in a deployed position and in the absence of pressure being applied on the corresponding tongue. - a housing having a front face, a rear face, a top face, a bottom face, and two lateral faces, said housing extending according to an axis perpendicular to the front and rear faces, this axis X constituting the axis of the housing, said housing being configured to be received in part in an opening in the panel, and once received in said opening, the axis of the housing is perpendicular to the plane of the opening, - two hooking means (7, 8f), each comprising at least one hook (8, 8m, 8f) for fastening the housing, at least one hooking means being mounted on the housing to slide transversely to its axis between at least a retracted, release position and at least a deployed, fastening position; the two hooking means (7, 8f) moving apart from each other when at least the slidable hooking means slide from the retracted position towards the deployed position; - at least one tongue against which an operator's finger can bear extending from a lateral side of the housing, each tongue being connected to slidable hooking means in order to cause the hooking means to slide from a deployed position to a retracted position when an operator presses against the tongue; and
A continuous method of processing elastomer composite through a two-roll mill, the two-roll mill having an input region and an output region axially spaced from one another along a first of the two rolls (12, 14), the method comprising: admitting discrete pieces of elastomer composite to the two-roll mill at the input region; adjusting one or more of a nip gap width, friction ratio, surface velocity, and coolant temperature of the roll mill such that A) a band of elastomer composite on the roll mill has a plurality of voids through which the surface of the first roll is exposed, and B) elastomer composite precesses downstream from the input region to the output region as a result of the action of the mill; and discharging elastomer composite masticated by the two-roll mill from a predetermined axial position on the first mill as a coherent output strip; wherein, either A) discharging is performed simultaneously with admitting, and, during discharging, any elastomer composite removed from the two-roll mill is removed continuously, or B) at least 90% of the elastomer composite removed from the two roll mill is removed continuously as a coherent strip. admitting discrete pieces of elastomer composite to the two-roll mill at the input region; adjusting one or more of a nip gap width, friction ratio, surface velocity, and coolant temperature of the roll mill such that A) a band of elastomer composite on the roll mill has a plurality of voids through which the surface of the first roll is exposed, and B) elastomer composite precesses downstream from the input region to the output region as a result of the action of the mill; and discharging elastomer composite masticated by the two-roll mill from a predetermined axial position on the first mill as a coherent output strip; wherein, either A) discharging is performed simultaneously with admitting, and, during discharging, any elastomer composite removed from the two-roll mill is removed continuously, or B) at least 90% of the elastomer composite removed from the two roll mill is removed continuously as a coherent strip.
Cable having one or more conductors for transmitting electrical energy and/or data and an elongated supporting member, wherein a connecting element (6; 106) for connection to a terminal (14, 14', 14"; 114, 114', 114") of a feed device (12; 112) for electrical energy and/or data is arranged at one end of the cable, wherein the supporting member is connectable in non-positive and/or positive manner to the connecting element (6; 106) for transmitting longitudinal tensile forces, characterised in that the supporting member is attached to a clamping bolt which is attached to the connecting element (6; 106) to be rotatable preferably about a rotational axis running transversely to the longitudinal direction of the supporting member for clamping the supporting member.
Airbag (10, 32, 33, 40, 43, 50), in particular for a motor vehicle, with a gas generator (14, 54), a plurality of chambers (11, 12, 52, 53, 55) and catch straps (13, 41, 42, 51), wherein the central region of the airbag has a high-pressure chamber (11, 52) which is formed by two catch straps (13, 51) and at the sides of which at least one low-pressure chamber (12, 53) is located in each case, wherein a gas outlet opening of the gas generator (14, 54) is arranged in the high-pressure chamber (11, 52), characterized in that said airbag has two further catch straps which each divide off a secondary chamber from the low-pressure chamber.
A communication method for communicating data related to an extended reality, XR, service, comprising: obtaining service feature configuration information of the data; configuring to-be-transmitted data in the data based on the service feature configuration information and untransmitted data and/or transmitted data in the data; and communicating with a terminal based on the configuration of the to-be-transmitted data; wherein the configuring to-be-transmitted data in the data based on untransmitted data and/or transmitted data in the data comprises: setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data; wherein the setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data comprises: setting the priority for the to-be-transmitted data based on a data volume of the untransmitted data and/or a data volume of the transmitted data, and based on one or more of a transmission delay of the transmitted data, an estimated transmission delay of the untransmitted data, a correct receiving rate of the transmitted data, an instantaneous transmission rate, or a historical transmission rate. obtaining service feature configuration information of the data; configuring to-be-transmitted data in the data based on the service feature configuration information and untransmitted data and/or transmitted data in the data; and communicating with a terminal based on the configuration of the to-be-transmitted data; wherein the configuring to-be-transmitted data in the data based on untransmitted data and/or transmitted data in the data comprises: setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data; wherein the setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data comprises: setting the priority for the to-be-transmitted data based on a data volume of the untransmitted data and/or a data volume of the transmitted data, and based on one or more of a transmission delay of the transmitted data, an estimated transmission delay of the untransmitted data, a correct receiving rate of the transmitted data, an instantaneous transmission rate, or a historical transmission rate. setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data; wherein the setting a priority for the to-be-transmitted data based on the untransmitted data and/or the transmitted data comprises: setting the priority for the to-be-transmitted data based on a data volume of the untransmitted data and/or a data volume of the transmitted data, and based on one or more of a transmission delay of the transmitted data, an estimated transmission delay of the untransmitted data, a correct receiving rate of the transmitted data, an instantaneous transmission rate, or a historical transmission rate.
A compound represented by the formula: wherein Ring A is an optionally further substituted ring, Ring D is an optionally further substituted ring, n is 1 or 2, X is -O-, -CR 1 R 2 -, -CR 1 R 2 -O-, -O-CR 1 R 2 - or -NR 3 -, R 1, R 2 and R 3 are each independently a hydrogen atom or a substituent, and R a and R b are each independently a hydrogen atom or a C 1-6 alkyl group optionally substituted by halogen atom(s), or a salt thereof. Ring A is an optionally further substituted ring, Ring D is an optionally further substituted ring, n is 1 or 2, X is -O-, -CR 1 R 2 -, -CR 1 R 2 -O-, -O-CR 1 R 2 - or -NR 3 -, R 1, R 2 and R 3 are each independently a hydrogen atom or a substituent, and R a and R b are each independently a hydrogen atom or a C 1-6 alkyl group optionally substituted by halogen atom(s), or a salt thereof.
A method of wireless communication, comprising: identifying, at a transmitter, a preferred per-layer modulation order from a plurality of indexed modulation orders for each layer of a plurality of layers scheduled for transmission of a codeword, wherein the preferred per-layer modulation order identified for any one of the plurality of layers is within a fixed index delta of the preferred per-layer modulation order of any other of the plurality of layers wherein the fixed index delta is the positional difference, in absolute value, between the modulation orders according to their index and wherein the fixed index delta value is stored in a memory at the transmitter and is used to limit the index delta of the preferred per-layer modulation order when selecting the preferred per-layer modulation order; and transmitting, by the transmitter, per-layer modulation parameters to a receiver based on the preferred per-layer modulation order identified for each layer of the plurality of layers. identifying, at a transmitter, a preferred per-layer modulation order from a plurality of indexed modulation orders for each layer of a plurality of layers scheduled for transmission of a codeword, wherein the preferred per-layer modulation order identified for any one of the plurality of layers is within a fixed index delta of the preferred per-layer modulation order of any other of the plurality of layers wherein the fixed index delta is the positional difference, in absolute value, between the modulation orders according to their index and wherein the fixed index delta value is stored in a memory at the transmitter and is used to limit the index delta of the preferred per-layer modulation order when selecting the preferred per-layer modulation order; and transmitting, by the transmitter, per-layer modulation parameters to a receiver based on the preferred per-layer modulation order identified for each layer of the plurality of layers.
A composition comprising a population of multipotent stromal cells encapsulated in Platelet-Poor Plasma, for use in a method of regenerating pulp tissue in a root canal.
A cover for closing a container, particularly a container for hazardous materials, having a cover plane with an upper side, an underside and at least four lateral edges, wherein at least one connector is respectively arranged on at least two opposing lateral edges, wherein at least one connector arranged on a lateral edge is mounted so as to be movable in relation to the lateral edge largely perpendicular and largely parallel to the cover plane; and wherein the cover has a guide for guiding the movable connector and for preventing a largely perpendicular movement of the movable connector in relation to the cover plane on its upper side and/or underside, characterized in that the movable connector has an at least partially circumferential groove in the region of the connector, which protrudes beyond the lateral edge in the closing position. wherein at least one connector arranged on a lateral edge is mounted so as to be movable in relation to the lateral edge largely perpendicular and largely parallel to the cover plane; and wherein the cover has a guide for guiding the movable connector and for preventing a largely perpendicular movement of the movable connector in relation to the cover plane on its upper side and/or underside, characterized in that the movable connector has an at least partially circumferential groove in the region of the connector, which protrudes beyond the lateral edge in the closing position.
An analyte monitoring system comprising: a sensor control device comprising: an electronics housing; a printed circuit board positioned within the electronics housing and having a data processing unit; an analyte sensor having a portion extending from a bottom of the electronics housing and being configured to extend beneath a user's skin to sense an analyte level in a bodily fluid; and at least one shield (3828a, 3828b) positioned within the electronics housing to protect the data processing unit from radiation from a radiation sterilization process. an electronics housing; a printed circuit board positioned within the electronics housing and having a data processing unit; an analyte sensor having a portion extending from a bottom of the electronics housing and being configured to extend beneath a user's skin to sense an analyte level in a bodily fluid; and at least one shield (3828a, 3828b) positioned within the electronics housing to protect the data processing unit from radiation from a radiation sterilization process.
Connecting member for fitting to a device for absorbing the energy of an impact, especially for a motor vehicle, comprising a cross-member extending in a transverse direction and at least one tubular absorption element extending in a longitudinal direction perpendicular to the transverse direction between two ends (14A, 14B), one of which cooperates with the cross-member, the connecting member comprising a plate which is to be attached to the cross-member, and a guide portion, secured to the plate, which is to be housed in the tubular absorption element, and comprising means for fixing to the tubular absorption element, characterised in that the guide portion has a general form of revolution about a longitudinal axis and comprises a first circumferential wall, secured to the plate, a second circumferential wall carrying the fixing means, and an intermediate wall connecting the first circumferential wall and the second circumferential wall together, the transverse dimensions of the first circumferential wall being smaller than the transverse dimensions of the second circumferential wall.
A control system for controlling a current source configured to provide a current (I LM) to lighting means; wherein the control system is configured to - obtain a first reference current (I ref1) for the current (I LM), - generate, based on the first reference current (I ref1), a second reference current (I ref2), wherein an amplitude of the second reference current (I ref2) periodically changes, with a frequency, around an amplitude of the first reference current (I ref1), and - perform, via a feedback control function block of the control system, a feedback control of the current (I LM) with regard to the second reference current (I ref2), wherein - the control system is configured to generate, based on the feedback control, a control signal for controlling the current source, characterized in that - the control system is configured to - compute an error between a measurement of the current (I LM) and the second reference current (I ref2), - input the error into a controller of the feedback control function block, and - generate, based on an output (C out) of the controller, the control signal for controlling the current source. - obtain a first reference current (I ref1) for the current (I LM), - generate, based on the first reference current (I ref1), a second reference current (I ref2), wherein an amplitude of the second reference current (I ref2) periodically changes, with a frequency, around an amplitude of the first reference current (I ref1), and - perform, via a feedback control function block of the control system, a feedback control of the current (I LM) with regard to the second reference current (I ref2), wherein - the control system is configured to generate, based on the feedback control, a control signal for controlling the current source, characterized in that - the control system is configured to - compute an error between a measurement of the current (I LM) and the second reference current (I ref2), - input the error into a controller of the feedback control function block, and - generate, based on an output (C out) of the controller, the control signal for controlling the current source. - compute an error between a measurement of the current (I LM) and the second reference current (I ref2), - input the error into a controller of the feedback control function block, and - generate, based on an output (C out) of the controller, the control signal for controlling the current source.
A pharmaceutical composition, in a solid form, allowing an oral administration of an unit dose ranging from 0.50 mg to 25.00 mg of levocetirizine dihydrochloride as active ingredient, and containing active granules comprising - the active ingredient, - a polyol fraction comprising one or more solid water soluble polyols having a molecular weight below 950 g/ mol, with a molar ratio between the polyol fraction and the active ingredient higher than 50, at least one solid water soluble polyol being mannitol, and - a buffering system, which contributes to maintain the pH of the whole pharmaceutical composition between 4.0 and 7.0 when the pharmaceutical composition containing 5 mg of active ingredient is dissolved in 100 ml of water. - the active ingredient, - a polyol fraction comprising one or more solid water soluble polyols having a molecular weight below 950 g/ mol, with a molar ratio between the polyol fraction and the active ingredient higher than 50, at least one solid water soluble polyol being mannitol, and - a buffering system, which contributes to maintain the pH of the whole pharmaceutical composition between 4.0 and 7.0 when the pharmaceutical composition containing 5 mg of active ingredient is dissolved in 100 ml of water.
A process to produce 1-chloro-3,3,3-trifluoropropene comprising the fluorination of an organic reactant selected from the group consisting of 1,1,1,3,3-pentachloro-propane (HCC-240fa), 1,1,3,3-tetrachloropropene (HCO-1230za), 1,3,3,3-tetrachloropropene (HCO-1230zd), or mixtures thereof, with anhydrous hydrogen fluoride in the presence of an effective amount of a phase-transfer catalyst.
A combination of a small substrate, a semiconductor process carrier for use on an electrostatic chuck and an electrostatic chuck stage, wherein the semiconductor process carrier includes a transferring base portion formed of a semiconductor substrate for enabling a small substrate to be held, wherein an opening is formed in the transferring base portion, and a polyimide film is attached to a bottom surface of the transferring base portion so as to cover the opening, wherein the small substrate is accommodated in the opening, the small substrate having a diameter smaller than a diameter of the transferring base portion or a shape different from a shape of the transferring base portion, wherein a hole for securing the small substrate by vacuum chuck or cooling the small substrate is formed in the polyimide film covering the opening and wherein the transferring base portion and the small substrate are attached by an electrostatic force to an electrostatic chuck stage, and wherein the polyimide film is disposed between the transferring base portion and the electrostatic chuck stage.
A section for a gas turbine engine comprising: a rotating structure; a stationary structure; a flow guide assembly (78, 178, 278, 378) arranged generally between the rotating structure and the stationary structure such that a flow path is defined between the flow guide assembly (78, 178, 278, 378) and one of the rotating structure and the stationary structure, the flow guide assembly (78, 178, 278, 378) including a plurality of apertures (82, 182, 282, 382) configured to disrupt acoustic waves of air in the flow path; and a seal configured to establish a sealing relationship between the rotating structure and the stationary structure, wherein an inlet to the flow path is adjacent the seal, wherein a point is defined along a length of the flow guide assembly (78, 178), and the plurality of apertures (82, 182) are arranged between the point and an outlet portion of the flow guide assembly (78, 178), wherein the point is a distance from an outlet portion of the flow guide assembly (78, 178) that is approximately equal to an acoustic wavelength associated with an acoustic-structural coincidence frequency in the flow path. a rotating structure; a stationary structure; a flow guide assembly (78, 178, 278, 378) arranged generally between the rotating structure and the stationary structure such that a flow path is defined between the flow guide assembly (78, 178, 278, 378) and one of the rotating structure and the stationary structure, the flow guide assembly (78, 178, 278, 378) including a plurality of apertures (82, 182, 282, 382) configured to disrupt acoustic waves of air in the flow path; and a seal configured to establish a sealing relationship between the rotating structure and the stationary structure, wherein an inlet to the flow path is adjacent the seal, wherein a point is defined along a length of the flow guide assembly (78, 178), and the plurality of apertures (82, 182) are arranged between the point and an outlet portion of the flow guide assembly (78, 178), wherein the point is a distance from an outlet portion of the flow guide assembly (78, 178) that is approximately equal to an acoustic wavelength associated with an acoustic-structural coincidence frequency in the flow path.