mhurhangee/patent-ind-claim-en huggingface dataset:
An oral training appliance for training the tongue and lips of a user, the oral training appliance comprising: a U shaped appliance body comprising a front section and two arms , the appliance body comprising an inner wall and an outer wall ; a web interconnecting the inner wall and the outer wall , a tongue training member extending posteriorly from the upper portion of the inner wall so as to locate above the tongue, wherein the tongue training member is a hollow compressible resilient member that is moveable in response to upwards movement by the user's tongue from a rest configuration to a training configuration, and the tongue training member is biased towards the rest configuration; and characterized in that the inner wall includes an upper portion which projects up from the web and a lower portion which projects down the from the web , the outer wall comprises an upper portion above the web and a lower portion below the web ; the inner wall , outer wall and web define an upper dental arch receiving channel and a lower arch receiving channel ; and the oral training appliance further comprises a lip training member which is a hollow compressible resilient member extending forwardly of the front section and is configured in use to extend between the user's lips, and is moveable in response to movement of the user's lower lip from a rest configuration to a training configuration and the lip training member is biased towards the rest configuration, wherein the lip training member has an upper wall and a lower wall that defines a breathing passage through the lip training member . a U shaped appliance body comprising a front section and two arms , the appliance body comprising an inner wall and an outer wall ; a web interconnecting the inner wall and the outer wall , a tongue training member extending posteriorly from the upper portion of the inner wall so as to locate above the tongue, wherein the tongue training member is a hollow compressible resilient member that is moveable in response to upwards movement by the user's tongue from a rest configuration to a training configuration, and the tongue training member is biased towards the rest configuration; and characterized in that the inner wall includes an upper portion which projects up from the web and a lower portion which projects down the from the web , the outer wall comprises an upper portion above the web and a lower portion below the web ; the inner wall , outer wall and web define an upper dental arch receiving channel and a lower arch receiving channel ; and the oral training appliance further comprises a lip training member which is a hollow compressible resilient member extending forwardly of the front section and is configured in use to extend between the user's lips, and is moveable in response to movement of the user's lower lip from a rest configuration to a training configuration and the lip training member is biased towards the rest configuration, wherein the lip training member has an upper wall and a lower wall that defines a breathing passage through the lip training member .
A hot-melt adhesive composition comprising: A) a styrene-butadiene-styrene triblock copolymer having: a1) a styrene-based unit content of 30 to 50% by weight, a2) a diblock content of 55% by weight or more, and a3) a melt flow index of 30 g/10 min to 50 g/10 min as measured according to ASTM D1238 standard at 190 °C/5 kg, B) a tackifier; and C) a plasticizer oil, wherein the hot-melt adhesive composition has a softening point of 75°C or more as measured according to ASTM D36 standard, and wherein the plasticizer oil is included in an amount of 90-110 parts by weight based on 100 parts by weight of the styrene-butadiene-styrene triblock copolymer, wherein a melt viscosity at 120°C is 4.5 Pa*s (4500 cPs) to 5.2 Pa*s (5200 cPs), wherein a melt viscosity at 160°C is 0.65 Pa*s (650 cPs) to 0.75 Pa*s (750 cPs), and wherein the hot-melt adhesive composition has a tensile strength value of 0.5 to 0.6 N/mm 2 at the time of preparing a specimen according to ASTM D638 standard. A) a styrene-butadiene-styrene triblock copolymer having: a1) a styrene-based unit content of 30 to 50% by weight, a2) a diblock content of 55% by weight or more, and a3) a melt flow index of 30 g/10 min to 50 g/10 min as measured according to ASTM D1238 standard at 190 °C/5 kg, a1) a styrene-based unit content of 30 to 50% by weight, a2) a diblock content of 55% by weight or more, and a3) a melt flow index of 30 g/10 min to 50 g/10 min as measured according to ASTM D1238 standard at 190 °C/5 kg, B) a tackifier; and C) a plasticizer oil, wherein the hot-melt adhesive composition has a softening point of 75°C or more as measured according to ASTM D36 standard, and wherein the plasticizer oil is included in an amount of 90-110 parts by weight based on 100 parts by weight of the styrene-butadiene-styrene triblock copolymer, wherein a melt viscosity at 120°C is 4.5 Pa*s (4500 cPs) to 5.2 Pa*s (5200 cPs), wherein a melt viscosity at 160°C is 0.65 Pa*s (650 cPs) to 0.75 Pa*s (750 cPs), and wherein the hot-melt adhesive composition has a tensile strength value of 0.5 to 0.6 N/mm 2 at the time of preparing a specimen according to ASTM D638 standard.
A method for determining a data transmission scheme, wherein the method comprises: obtaining , by a wireless data terminal, first environment quality information of the wireless data terminal; determining , by the wireless data terminal, from at least two candidate data transmission schemes, a first data transmission scheme corresponding to the first environment quality information, wherein each of the at least two candidate data transmission schemes comprises parameters used for communicating with user equipment; and using , by the wireless data terminal, the first data transmission scheme to communicate with the user equipment, wherein the using, by the wireless data terminal, the first data transmission scheme to communicate with the user equipment, comprises: determining whether the first data transmission scheme is the same as a data transmission scheme currently used by the wireless data terminal device; and if the first data transmission scheme is the same as the data transmission scheme currently used by the wireless data terminal device, keeping the currently used data transmission scheme unchanged; or if the first data transmission scheme is different from the data transmission scheme currently used by the wireless data terminal device, using the first data transmission scheme to communicate with the user equipment. obtaining , by a wireless data terminal, first environment quality information of the wireless data terminal; determining , by the wireless data terminal, from at least two candidate data transmission schemes, a first data transmission scheme corresponding to the first environment quality information, wherein each of the at least two candidate data transmission schemes comprises parameters used for communicating with user equipment; and using , by the wireless data terminal, the first data transmission scheme to communicate with the user equipment, wherein the using, by the wireless data terminal, the first data transmission scheme to communicate with the user equipment, comprises: determining whether the first data transmission scheme is the same as a data transmission scheme currently used by the wireless data terminal device; and if the first data transmission scheme is the same as the data transmission scheme currently used by the wireless data terminal device, keeping the currently used data transmission scheme unchanged; or determining whether the first data transmission scheme is the same as a data transmission scheme currently used by the wireless data terminal device; and if the first data transmission scheme is the same as the data transmission scheme currently used by the wireless data terminal device, keeping the currently used data transmission scheme unchanged; or if the first data transmission scheme is different from the data transmission scheme currently used by the wireless data terminal device, using the first data transmission scheme to communicate with the user equipment.
A superconducting transmission driver system comprising: a reciprocal quantum logic RQL, Josephson transmission line ,JTL, that is configured to provide a single flux quantum , SFQ, pulse to an input as an RQL pulse comprising a positive fluxon and a negative fluxon; a latching gate stage comprising at least one Josephson junction < (J2) configured to switch from an off state to an oscillating voltage state to provide an oscillating voltage (V OSC ) at a control node in response to the SFQ_pulse received at the input, wherein the off state is defined as a state in which the oscillating voltage produced by the latching gate is deactivated, the latching gate stage being configured to reject the negative fluxon; and a low-pass filter stage coupled to the control node and configured to convert the oscillating voltage (V OSC ) to a pulse signal (PLS) to be transmitted over a transmission line. a reciprocal quantum logic RQL, Josephson transmission line ,JTL, that is configured to provide a single flux quantum , SFQ, pulse to an input as an RQL pulse comprising a positive fluxon and a negative fluxon; a latching gate stage comprising at least one Josephson junction < (J2) configured to switch from an off state to an oscillating voltage state to provide an oscillating voltage (V OSC ) at a control node in response to the SFQ_pulse received at the input, wherein the off state is defined as a state in which the oscillating voltage produced by the latching gate is deactivated, the latching gate stage being configured to reject the negative fluxon; and a low-pass filter stage coupled to the control node and configured to convert the oscillating voltage (V OSC ) to a pulse signal (PLS) to be transmitted over a transmission line.
A composition comprising a combination of a mucoadhesive component in the range from 0.05-20% by weight, an emollient component in the range from 0.02-20% by weight, sodium hyaluronate in the range from 0.01-15% by weight and one or more amino acids in the range from 0.02-5% by weight for use in the treatment of epithelial lesions, wherein said emollient component is an extract of Oryza sativa.
A power receiving device for wireless charging comprising: a body having a receiving part formed therein; and a charging kit detachably receivable in the receiving part , and including a coil formed to receive power by magnetic coupling with a power supplying device , a charging circuit configured to charge a battery by induced electromotive force induced by the coil ; wherein the charging kit is disposable in parallel with a main surface of the body ; characterised in that the power receiving device further comprises a frame enclosing the coil and the charging circuit , and in that the receiving part in which the charging kit is received is opened so as to be in communication with the outside. a body having a receiving part formed therein; and a charging kit detachably receivable in the receiving part , and including a coil formed to receive power by magnetic coupling with a power supplying device , a charging circuit configured to charge a battery by induced electromotive force induced by the coil ; wherein the charging kit is disposable in parallel with a main surface of the body ;
A semiconductor device comprising a plurality of cells, comprising a base region of a first conductivity type having disposed therein at least one cathode region of a first and second conductivity type connected together through conductive contacts such that the cells are operative, and wherein at least a portion of the remaining cells comprise a base region of a first conductivity type and no cathode regions so that the remaining cathode regions are configured to be inoperative and designated as dummy cells; a first well region of a second conductivity type ; a second well region of a first conductivity type ; a drift region of a second conductivity type ; an anode region of a first conductivity type; and an anode contact ; in which each cell is disposed within the first well region and the first well region is disposed within the second well region ; wherein the device comprises an elongate trench that longitudinally intersects the second well region and the drift region and laterally intersects the base region and the first and second well regions, the trench at least partially extending through the thickness of the second well region, wherein an insulating film is provided to cover the inner surface of the trench and wherein a first gate is formed on the insulating film so as to fill the trench; and in which the device is configured such that during operation of the device a depletion region at a junction between the base region and the first well region extends to a junction between the first well region and the second well region, thereby isolating the potential of the first well region from any increase in the potential of the anode contact.
A drive system for a mobile member, comprising a first actuator moving said mobile member, a return element able to bring the mobile member into a safe position, a locking means for locking the position of the mobile member in a preferred position of activation , a second actuator able to free said locking means, said system further comprising an electronic control circuit characterized in that said electronic circuit is fed with a bipolar electrical signal having a high level and a low level , and comprising an energy storage means , - said electronic circuit commanding, when the signal passes from a "low" state to a "high" state, the activation of the first actuator, for a predetermined length of time, to ensure that the shutoff member is moved into and locked in position in the preferred position of activation, - said electronic circuit commanding, when the signal drops from a "high" state to a "low" state, or in the event of failure of said bipolar electrical signal, the activation of the second actuator using the energy supplied by said storage means, to command the unlocking and allow the mobile member to return to the safe position under the action of the return element, - said electronic circuit further commanding the holding of the safe position and the preferred position of activation of the mobile member with no electrical power consumption of said actuators, said electronic circuit consuming, for holding the preferred position of activation, a current corresponding to the consumption in standby mode, said electronic control circuit being exclusively "discrete" using only discrete components without recourse to an embedded intelligence, said electronic control circuit detecting the "high" and "low" state changes of said bipolar electrical signal by comparing a fixed reference voltage to a voltage changing over time, and this detection being performed by at least one hysteresis comparator stably driving a transistor. - said electronic circuit commanding, when the signal passes from a "low" state to a "high" state, the activation of the first actuator, for a predetermined length of time, to ensure that the shutoff member is moved into and locked in position in the preferred position of activation, - said electronic circuit commanding, when the signal drops from a "high" state to a "low" state, or in the event of failure of said bipolar electrical signal, the activation of the second actuator using the energy supplied by said storage means, to command the unlocking and allow the mobile member to return to the safe position under the action of the return element, - said electronic circuit further commanding the holding of the safe position and the preferred position of activation of the mobile member with no electrical power consumption of said actuators,
A vestibular/cochlear stimulation pad comprising: a flexible sheet of padding having an upper surface ; a plurality of bone conduction transducers , located on said upper surface , capable of emitting sound waves with frequencies between 50 and 4,000 Hz to stimulate the vestibular/cochlear apparatus of a human through bone conduction; a wireless receiver electrically connected to said plurality of bone conduction transducers , a cover enclosing the flexible sheet of padding , the plurality of bone conduction transducers , and the wireless receiver , wherein the wireless receiver is located on a surface of the flexible sheet of padding and is configured to receive signals for driving the bone conduction transducers . a flexible sheet of padding having an upper surface ; a plurality of bone conduction transducers , located on said upper surface , capable of emitting sound waves with frequencies between 50 and 4,000 Hz to stimulate the vestibular/cochlear apparatus of a human through bone conduction; a wireless receiver electrically connected to said plurality of bone conduction transducers , a cover enclosing the flexible sheet of padding , the plurality of bone conduction transducers , and the wireless receiver , wherein the wireless receiver is located on a surface of the flexible sheet of padding and is configured to receive signals for driving the bone conduction transducers .
A method of coloring an optical glass, in particular an ophthalmic glass comprising a predetermined glass material, to achieve a target coloration of the optical glass, the method comprising: - determining a material-specific inherent coloration of the predetermined glass material; - determining a glass thickness at a plurality of evaluation locations on the optical glass; - determining an intrinsic color of the optical glass from the material-specific intrinsic color of the predetermined glass material and the glass thickness at the plurality of evaluation locations on the optical glass; - determining a reference color pigment amount for at least one color pigment such that the reference color pigment amount applied to a reference substrate provides for the reference substrate the target coloration to be achieved on the optical glass; - determining a color correction model describing a relationship between a deviation of a color pigment amount for at least one color pigment from the reference color pigment amount of the at least one color pigment and a resulting deviation of a coloration of the reference substrate from the target coloration; and - determining a target color pigment amount that deviates from the reference color pigment amount by a color pigment amount correction that compensates for the determined intrinsic coloration of the optical glass according to the determined color correction model. - determining a material-specific inherent coloration of the predetermined glass material; - determining a glass thickness at a plurality of evaluation locations on the optical glass; - determining an intrinsic color of the optical glass from the material-specific intrinsic color of the predetermined glass material and the glass thickness at the plurality of evaluation locations on the optical glass; - determining a reference color pigment amount for at least one color pigment such that the reference color pigment amount applied to a reference substrate provides for the reference substrate the target coloration to be achieved on the optical glass; - determining a color correction model describing a relationship between a deviation of a color pigment amount for at least one color pigment from the reference color pigment amount of the at least one color pigment and a resulting deviation of a coloration of the reference substrate from the target coloration; and - determining a target color pigment amount that deviates from the reference color pigment amount by a color pigment amount correction that compensates for the determined intrinsic coloration of the optical glass according to the determined color correction model.
A method of encoding or decoding a video in a bitstream, wherein the video comprises a plurality of frames, each frame comprising blocks of samples, the method being characterized in that : for at least a current block, identifying at least a first intra direction for a first control point and a second intra direction for a second control point; for at least one current sample in the current block, deriving an intra prediction direction for the sample by interpolating a direction from at least the first intra direction and the second intra direction; and predicting the sample with intra prediction using the derived intra prediction direction. for at least a current block, identifying at least a first intra direction for a first control point and a second intra direction for a second control point; for at least one current sample in the current block, deriving an intra prediction direction for the sample by interpolating a direction from at least the first intra direction and the second intra direction; and predicting the sample with intra prediction using the derived intra prediction direction.
Piezoelectric device comprising: - a transparent substrate ; - a transparent piezoelectric layer on the transparent substrate ; - a transparent conductive layer of interdigitated electrodes on the transparent piezoelectric layer ; characterized in that the piezoelectric device further comprises: - a transparent dielectric layer directly on the transparent piezoelectric layer , contacting the interdigitated electrodes , and having a dielectric strength greater than 3 MV/m; and in that : the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer ; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes . - a transparent substrate ; - a transparent piezoelectric layer on the transparent substrate ; - a transparent conductive layer of interdigitated electrodes on the transparent piezoelectric layer ; - a transparent dielectric layer directly on the transparent piezoelectric layer , contacting the interdigitated electrodes , and having a dielectric strength greater than 3 MV/m; and in that : the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer ; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes . the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer ; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes .