mhurhangee/ep-ind-claims huggingface dataset:
A container for packaging a first fluid and a second fluid, provided with a rupturable membrane which allows this first fluid to be separated from this second fluid, and with a striker having the function of striking said membrane and thus of allowing the first and the second fluid to mix, wherein the container comprises a first element, suitable for receiving the first fluid with a body comprising a first end provided with a dispenser, and a second end forming an aperture intended for receiving the first fluid, wherein the container also includes a second element, suitable for receiving the second fluid with a body including a first end forming an aperture, intended for receiving the second fluid, and a second end closed by means of a pliable wall, wherein the second element is suitable for being received in the second end of the first element and thus for closing this second end of the first element, and the second element is provided with a striker fixed on the pliable wall, which thus makes the striker movable, wherein the first end of the second element of the container is closed off by the membrane, which makes possible the separation between the first fluid, which is received in the first element of the container, and the second fluid, which is received in the second element of the container, said container being characterised in that the striker is connected to the body of the second element by means of at least one arm, in that the striker and the at least one arm are integral parts of the body of the second element and in that the pliable wall is connected to the walls of the body of the second element and to the striker, thus making the striker follow the deformation of the pliable wall.
A resuscitation system for monitoring and resuscitating a patient, comprising: at least two electrical therapy electrodes (12, 14) adapted to be worn by the patient for extended periods of time; circuitry for monitoring the ECG of the patient through the therapy electrodes; an activity sensor adapted to be worn by the patient and capable of providing an output from which the patient's current activity can be estimated; and at least one processor configured for: (i) estimating the patient's current activity by analyzing the output of the activity sensor, (ii) analyzing the ECG of the patient, and (iii) determining whether the patient has an elevated probability of cardiac arrest based on the patient's current activity and the analysis of the ECG of the patient. at least two electrical therapy electrodes (12, 14) adapted to be worn by the patient for extended periods of time; circuitry for monitoring the ECG of the patient through the therapy electrodes; an activity sensor adapted to be worn by the patient and capable of providing an output from which the patient's current activity can be estimated; and at least one processor configured for: (i) estimating the patient's current activity by analyzing the output of the activity sensor, (ii) analyzing the ECG of the patient, and (iii) determining whether the patient has an elevated probability of cardiac arrest based on the patient's current activity and the analysis of the ECG of the patient.
Electrical assembly, in particular for a motor vehicle transmission, comprising: - a printed circuit board that has at least one component side, - at least two contact surfaces arranged on the component side, - at least two contact elements, which are respectively electrically connected, by a first end portion on the printed circuit board side, to one of the contact surfaces, - a potting compound, arranged on the component side of the printed circuit board, in which the contact elements are partly embedded, wherein the potting compound is in direct contact with and covers the contact surfaces and end portions of the contact elements on the printed circuit board side, and wherein the contact elements protrude, by second end portions that face away from the printed circuit board, from the potting compound, characterized in that the electrical assembly comprises a chip protection frame that, by a portion that faces toward the printed circuit board, is arranged on the component side of the printed circuit board and that, by a portion that faces away from the printed circuit board, protrudes outward from the potting compound, wherein the portion of the chip protection frame that protrudes outward from the potting compound forms a plurality of contact chambers, not filled with potting compound, that are respectively assigned to the contact elements, and respectively only one second end portion of a contact element is arranged in each contact chamber. - a printed circuit board that has at least one component side, - at least two contact surfaces arranged on the component side, - at least two contact elements, which are respectively electrically connected, by a first end portion on the printed circuit board side, to one of the contact surfaces, - a potting compound, arranged on the component side of the printed circuit board, in which the contact elements are partly embedded, wherein the potting compound is in direct contact with and covers the contact surfaces and end portions of the contact elements on the printed circuit board side, and wherein the contact elements protrude, by second end portions that face away from the printed circuit board, from the potting compound,
A stator assembly structure of a rotary electrical machine for assembling a stator on a case, the stator assembly structure comprising the stator and the case; the stator including a stator holder that has a cylindrical shape and a stator core retained at an inner peripheral surface of the stator holder, the stator holder including a flange portion ( 23-25, 27, 28) that extends in a radially outward direction from one axial end of the stator and that includes a plurality of positioning bores ( 31, 32, 37, 38) arranged at intervals in a circumferential direction of the stator, the stator holder further including a fixing portion fixing the stator to the case; the case further including a fixing seat fixing the fixing portion of the stator holder; the stator assembly structure being characterized in that the case includes a positioning pins having an outer diameter smaller than a diameter of each of the positioning bores ( 31, 32, 37, 38) of the flange portion, the positioning pins being engageable with the positioning bores ( 31, 32, 37, 38); and each of the positioning bores ( 31, 32, 37, 38) of the flange portion ( 23-25, 27, 28) of the stator holder including at least three bending portions ( 5, 51, 52, 57, 58) that extend from a peripheral edge ( 311, 371, 381) of the positioning bore ( 31, 32, 37, 38) towards a radially inward side, each of the bending portions ( 5, 51, 52, 57, 58) being formed to be bent at a portion in a length direction from the peripheral edge ( 311, 371, 381) towards the radially inward side relative to the flange portion.
A network side server, comprising: a prompting module, which is configured to prompt a caller to enter authentication information when a call waiting times out or the caller presses a particular key during call establishment with a called terminal; a receiving module, which is configured to receive the authentication information entered by the caller; and a sending module, which is configured to send the authentication information to the called terminal in a form of a short message. a prompting module, which is configured to prompt a caller to enter authentication information when a call waiting times out or the caller presses a particular key during call establishment with a called terminal; a receiving module, which is configured to receive the authentication information entered by the caller; and a sending module, which is configured to send the authentication information to the called terminal in a form of a short message.
A method of wireless communications performed by an apparatus of an access point, AP, comprising: selecting a packet duration for uplink, UL, transmissions from a station, STA; transmitting a trigger frame soliciting UL data from the STA and indicating the selected packet duration; receiving an UL packet of the selected packet duration from the STA; and selectively adjusting the packet duration for subsequent UL transmissions from the STA based on one or more of an amount of data carried in the UL packet, an amount of padding inserted into the UL packet by the STA, or an amount of UL data queued in the STA, wherein selectively adjusting the packet duration comprises decreasing the packet duration when the amount of padding inserted into the UL packet by the STA is greater than a value while at least some UL data is queued in the STA. selecting a packet duration for uplink, UL, transmissions from a station, STA; transmitting a trigger frame soliciting UL data from the STA and indicating the selected packet duration; receiving an UL packet of the selected packet duration from the STA; and selectively adjusting the packet duration for subsequent UL transmissions from the STA based on one or more of an amount of data carried in the UL packet, an amount of padding inserted into the UL packet by the STA, or an amount of UL data queued in the STA, wherein selectively adjusting the packet duration comprises decreasing the packet duration when the amount of padding inserted into the UL packet by the STA is greater than a value while at least some UL data is queued in the STA.
A woven fabric (300,400) for a low profile implantable medical device comprising: a plurality of textile strands of a composite yarn (100, 200, 310, 430) aligned in a first direction (330, 430) interlaced with a plurality of textile strands of the composite yarn (320, 420) aligned in a second direction (340, 440); the composite yarn comprising a combination of a first material (112, 212) and a second material (114, 214), where the textile strands have a size between 10 denier to 20 denier (corresponding to about 11 to 22 dtex), and where the first material (112, 212) has at least one characteristic different from the second material (114, 214), and where the first material comprises ultra-high molecular weight polyethylene and the second material comprises polyethylene terephthalate. a plurality of textile strands of a composite yarn (100, 200, 310, 430) aligned in a first direction (330, 430) interlaced with a plurality of textile strands of the composite yarn (320, 420) aligned in a second direction (340, 440); the composite yarn comprising a combination of a first material (112, 212) and a second material (114, 214), where the textile strands have a size between 10 denier to 20 denier (corresponding to about 11 to 22 dtex), and where the first material (112, 212) has at least one characteristic different from the second material (114, 214), and where the first material comprises ultra-high molecular weight polyethylene and the second material comprises polyethylene terephthalate.
Controlled, reversible electrostatic method for doping a conductive or non-conductive material deposited in the form of a layer on a solid substrate, said material being selected from the group comprising graphene, molybdenum disulfide, tungsten disulfide, indium selenide, gallium sulfide, zinc oxide, tin-doped indium oxide and cuprate superconductors, said method being characterized in that it is performed in a vacuum, in that said substrate is a glassy matrix containing ions mobile at a doping temperature (T D) in the range of 50 °C to 130 °C, and in that it comprises at least the following steps: - bringing said glassy matrix comprising said layer of conductive or non-conductive material to said doping temperature; - applying an electric field between said glassy matrix and said conductive or non-conductive material at a voltage in the range of -300 V to +300V, whilst holding the temperature at the doping temperature; - bringing said glassy matrix comprising said layer of conductive or non-conductive material to a temperature of use (T U), said temperature of use being lower than 50 °C, said method being implemented on at least one portion of the surface of said conductive or non-conductive material. - bringing said glassy matrix comprising said layer of conductive or non-conductive material to said doping temperature; - applying an electric field between said glassy matrix and said conductive or non-conductive material at a voltage in the range of -300 V to +300V, whilst holding the temperature at the doping temperature; - bringing said glassy matrix comprising said layer of conductive or non-conductive material to a temperature of use (T U), said temperature of use being lower than 50 °C,
A detecting system comprising: a sensor including: an antenna unit formed with a metal pattern; and a back surface reflector that faces the antenna unit via an isolation layer; and a reader that transmits electromagnetic waves (Fa) to the sensor, receives reflected waves (Fr) from the sensor, and compares reflection characteristics of the sensor detected from the reflected waves (Fr) with reflection characteristics of the sensor stored in advance, to detect a state change in the sensor, wherein the sensor is formed such that one of a state of the antenna unit, a state of the isolation layer, or a state of the back surface reflector is linked to a state of a detection target, and wherein the reader detects a state change in the detection target, by comparing the reflection characteristics of the sensor detected from the reflected waves (Fr) with the reflection characteristics of the sensor stored in advance. a sensor including: an antenna unit formed with a metal pattern; and a back surface reflector that faces the antenna unit via an isolation layer; and a reader that transmits electromagnetic waves (Fa) to the sensor, receives reflected waves (Fr) from the sensor, and compares reflection characteristics of the sensor detected from the reflected waves (Fr) with reflection characteristics of the sensor stored in advance, to detect a state change in the sensor, wherein the sensor is formed such that one of a state of the antenna unit, a state of the isolation layer, or a state of the back surface reflector is linked to a state of a detection target, and wherein the reader detects a state change in the detection target, by comparing the reflection characteristics of the sensor detected from the reflected waves (Fr) with the reflection characteristics of the sensor stored in advance.
A method for compensating hearing deficiencies with a hearing device, the method comprising: receiving a sound signal; attenuating an output sound pressure level of the sound signal dependent on an input sound pressure level of the sound signal; outputting the attenuated sound signal with a loudspeaker of the hearing device; wherein the output sound pressure level is attenuated, when the input sound pressure level is above a sound pressure level threshold (SPLT), which sound pressure level threshold (SPLT) is stored in the hearing device and which has been selected smaller than an upper speech recognition kneepoint of the user, which upper speech recognition kneepoint is stored in the hearing device and which has been selected dependent on a sound pressure level dependent speech recognition ability of the user; wherein the upper speech recognition kneepoint is the lowest sound pressure level at which the user has hearing deficiencies in hearing speech; wherein an attenuation factor of the output sound signal below the sound pressure level threshold (SPLT) is equal to 1 and at a maximal sound pressure level (MEIL) the sound signal is attenuated to the upper speech recognition kneepoint. receiving a sound signal; attenuating an output sound pressure level of the sound signal dependent on an input sound pressure level of the sound signal; outputting the attenuated sound signal with a loudspeaker of the hearing device; wherein the output sound pressure level is attenuated, when the input sound pressure level is above a sound pressure level threshold (SPLT), which sound pressure level threshold (SPLT) is stored in the hearing device and which has been selected smaller than an upper speech recognition kneepoint of the user, which upper speech recognition kneepoint is stored in the hearing device and which has been selected dependent on a sound pressure level dependent speech recognition ability of the user; wherein the upper speech recognition kneepoint is the lowest sound pressure level at which the user has hearing deficiencies in hearing speech; wherein an attenuation factor of the output sound signal below the sound pressure level threshold (SPLT) is equal to 1 and at a maximal sound pressure level (MEIL) the sound signal is attenuated to the upper speech recognition kneepoint.
A method for manufacturing a covering structure for a cardboard package comprising a tubular body made up of one or more layers of a cardboard material and a lid sealably assembled to an opening end of the tubular body, said covering structure comprising a lid cardboard and a safety membrane, said method comprising the flat assembly of three materials, i.e.: - a cellulosic material covered with at least one reactivatable barrier material over a face thereof oriented towards said safety membrane, making up said lid cardboard, - a laminating part arranged between said lid cardboard and said safety membrane, with a shape conjugated to the shape of the opening of the tubular body, made from paper or paper whereof a face oriented towards said lid cardboard is coated with a material having barrier and sealing properties relative to said lid cardboard, and - a material forming said safety membrane, made up of a paper that is coated with at least one reactivatable and peelable barrier material on the surface thereof not oriented towards a laminating part. - a cellulosic material covered with at least one reactivatable barrier material over a face thereof oriented towards said safety membrane, making up said lid cardboard, - a laminating part arranged between said lid cardboard and said safety membrane, with a shape conjugated to the shape of the opening of the tubular body, made from paper or paper whereof a face oriented towards said lid cardboard is coated with a material having barrier and sealing properties relative to said lid cardboard, and - a material forming said safety membrane, made up of a paper that is coated with at least one reactivatable and peelable barrier material on the surface thereof not oriented towards a laminating part.
A compound represented by Formula I or Formula I', a salt or a solvate thereof, wherein: Wis wherein the two carbonyl groups are located on the same side of the C=C double bond, which is a cis structure; R 1 is a C 1-6 linear or branched alkyl, and R 1 is optionally mono- or multi-substituted by one or more substituents selected from the group consisting of: halogen and C 1-4 alkoxy; L 1 is selected from the group consisting of: -(CH 2) m -, -(CH 2) t O-, -(CH 2 CH 2 O) r -, -O-, -NH-, -S-, -S -, -S 2 -, -NCH 3 -, -NH(CH 2) 2 NH-, -C -, -(CH 2) e -C NH-(CH 2 CH 2 O) f -(CH 2) g -, -(CH 2) h -C NH-CH[(CH 2) i -NHC -(CH 2 CH 2 O) j -(CH 2) k -CH 3] -, L 2 is L 3 is R 2 is selected from the group consisting of: and R' 2 is halogen; R 3 is selected from the group consisting of: hydrogen, halogen, methyl, ethyl, nitro, methoxy, and ethoxy; q is 0 or 1; m, r, t, e, f, g, h, i, j and k are each independently selected from the group consisting of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10 and 11; each p is independently 0, 1, 2, 3 or 4; Y is an amino acid residue formed by a dipeptide selected from the group consisting of: Val-Cit, Val-Ala, Val-Lys, Val-Gly, Val-Thr, Val-Val, Val-Leu, Val-Ile, Val-Asn and Phe-Lys, wherein the N-terminus is connected to the carbonyl and the C-terminus is connected to the N atom; Z is -CH 2 -, -CH(CH 3)- or -C(CH 3) 2 -. Wis wherein the two carbonyl groups are located on the same side of the C=C double bond, which is a cis structure; R 1 is a C 1-6 linear or branched alkyl, and R 1 is optionally mono- or multi-substituted by one or more substituents selected from the group consisting of: halogen and C 1-4 alkoxy; L 1 is selected from the group consisting of: -(CH 2) m -, -(CH 2) t O-, -(CH 2 CH 2 O) r -, -O-, -NH-, -S-, -S -, -S 2 -, -NCH 3 -, -NH(CH 2) 2 NH-, -C -, -(CH 2) e -C NH-(CH 2 CH 2 O) f -(CH 2) g -, -(CH 2) h -C NH-CH[(CH 2) i -NHC -(CH 2 CH 2 O) j -(CH 2) k -CH 3] -, L 2 is L 3 is R 2 is selected from the group consisting of: and R' 2 is halogen; R 3 is selected from the group consisting of: hydrogen, halogen, methyl, ethyl, nitro, methoxy, and ethoxy; q is 0 or 1; m, r, t, e, f, g, h, i, j and k are each independently selected from the group consisting of 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10 and 11; each p is independently 0, 1, 2, 3 or 4; Y is an amino acid residue formed by a dipeptide selected from the group consisting of: Val-Cit, Val-Ala, Val-Lys, Val-Gly, Val-Thr, Val-Val, Val-Leu, Val-Ile, Val-Asn and Phe-Lys, wherein the N-terminus is connected to the carbonyl and the C-terminus is connected to the N atom; Z is -CH 2 -, -CH(CH 3)- or -C(CH 3) 2 -.
A method of enlarging an observation window (330a, 330b) from which a Computer Generated Holographic, CGH, image may be viewed, comprising: producing a CGH image by illuminating a computer controlled Spatial Light Modulator SLM using coherent light, thereby modulating the coherent light, and wherein the SLM is controlled so as to produce a real CGH image; projecting the real CGH image using an optical system (315, 420), thereby also producing an observation window (330a, 330b) which is an image of the SLM through the optical system (315, 420), from which the projected CGH image may be viewed by an observer; and jittering a location of the observation window (330a, 330b) of the CGH image relative to the observer location by jittering an image deflector, located at a location of the real CGH image and optically coupled to the optical system (315, 420) projecting the real CGH image. producing a CGH image by illuminating a computer controlled Spatial Light Modulator SLM using coherent light, thereby modulating the coherent light, and wherein the SLM is controlled so as to produce a real CGH image; projecting the real CGH image using an optical system (315, 420), thereby also producing an observation window (330a, 330b) which is an image of the SLM through the optical system (315, 420), from which the projected CGH image may be viewed by an observer; and jittering a location of the observation window (330a, 330b) of the CGH image relative to the observer location by jittering an image deflector, located at a location of the real CGH image and optically coupled to the optical system (315, 420) projecting the real CGH image.
A controller for a hybrid system including an electric supercharger, a motor generator, and an energy storage system for supplying electric power to the electric supercharger and the motor generator, the controller controlling the electric supercharger and the motor generator in accordance with a required torque, characterized in that, even when the required torque can be achieved by an engine alone, the controller activates at least one of the electric supercharger and the motor generator to provide torque assist to the engine when a state of charge of the energy storage system is sufficiently high, wherein the controller sequentially permits activation of the electric supercharger, activation of the motor generator, and activation of both the electric supercharger and the motor generator as the state of charge of the energy storage system increases.