mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving two or more base events at an event listener, wherein the two or more base events comprise at least a pairing of a mobile device with an external device , and one or more unlocks of the mobile device while the mobile device is paired with the external device; storing the two or more base events at a state storage; providing the two or more base events stored at the state storage to an inference module; providing a current security configuration to the inference module; and identifying , by the inference module, a security configuration change based on the two or more base events and the current security configuration, wherein the security configuration change is a setting where no password is required to access the mobile device when the mobile device is paired with the external device and the external device is designated as a trusted device. receiving two or more base events at an event listener, wherein the two or more base events comprise at least a pairing of a mobile device with an external device , and one or more unlocks of the mobile device while the mobile device is paired with the external device; storing the two or more base events at a state storage; providing the two or more base events stored at the state storage to an inference module; providing a current security configuration to the inference module; and identifying , by the inference module, a security configuration change based on the two or more base events and the current security configuration, wherein the security configuration change is a setting where no password is required to access the mobile device when the mobile device is paired with the external device and the external device is designated as a trusted device.
Cap intended to be accommodated on a driver of a wiper arm of a vehicle wiper device, comprising at least one collaboration means able to attach the cap to a fixing means for fixing of the driver , comprising at least one accommodation means for accommodating a fluid transport pipe , said fluid being preferably conducted towards a wiper blade borne by the wiper arm or towards spray means borne by the wiper arm , characterised in that it consists of a trench arranged in an upper wall of the cap , said trench preferably being formed in such a way that the fluid transport pipe lies flush with the upper wall of the cap , the said trench preferably being formed in such a way that the fluid transport pipe lies flush with the upper wall of the cap when mounted on the cap, the cap comprising at least one retaining means for holding the fluid transport pipe in the trench comprising a first and second prominence arranged face to face on each of the edges delimiting an opening of the trench and extending toward one another in order to form a partial occlusion of the said opening .
A method for user equipment (UE) mobility comprising: - configuring a base station as an anchor cell in a third generation partnership project network for a plurality of small cells ; - maintaining at the base station context information for the UE, while the UE is connected to the base station and maintaining the context information at the base station for the UE while any small cell of the plurality of small cells is configured as a transmission point, TP, for the UE; wherein the context information comprises a security key KeBN or security information KeNB* for deriving the security key KeNB; - sending the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB from the base station to a small cell that is currently configured as the TP for the UE wherein the security key sent to the small cell is the same as the security key for the anchor cell - sending the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB from the base station to a TP, which serves the coverage area of a non-anchor cell the UE is entering, target TP, when an anchor serving cell, source TP, that is not the base station hands the UE over to the target TP, thus avoiding that the source TP has to send the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB to the target TP; wherein the security key KeNB or security information KeNB* is the same as the security key KeNB or security information KeNB* for the anchor cell . - configuring a base station as an anchor cell in a third generation partnership project network for a plurality of small cells ; - maintaining at the base station context information for the UE, while the UE is connected to the base station and maintaining the context information at the base station for the UE while any small cell of the plurality of small cells is configured as a transmission point, TP, for the UE; wherein the context information comprises a security key KeBN or security information KeNB* for deriving the security key KeNB; - sending the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB from the base station to a small cell that is currently configured as the TP for the UE wherein the security key sent to the small cell is the same as the security key for the anchor cell - sending the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB from the base station to a TP, which serves the coverage area of a non-anchor cell the UE is entering, target TP, when an anchor serving cell, source TP, that is not the base station hands the UE over to the target TP, thus avoiding that the source TP has to send the context information comprising the security key KeNB or security information KeNB* for deriving the security key KeNB to the target TP; wherein the security key KeNB or security information KeNB* is the same as the security key KeNB or security information KeNB* for the anchor cell .
A therapeutically effective amount of an anti-androgen for use in a method of treating non-metastatic castration-resistant prostate cancer in a male human, wherein said method comprises administering said anti-androgen to a male human with a non-metastatic castration-resistant prostate cancer, wherein the anti-androgen is 4-[7-(6-cyano-5-trifluoromethylpyridin-3-yl)-8-oxo-6-thioxo-5,7-diazaspiro[3.4]oct-5-yl]-2-fluoro-N-methylbenzamide, wherein said method further comprises maintaining castrated levels of testosterone by co-administering a gonadotropin-releasing hormone (GnRH) agonist or antagonist or by orchiectomy, and wherein the treatment provides a PSA90 at 3 months, a PSA50 at 6 months, and/or a PSA90 at 6 months.
A self-healing polymer system having a weight average molecular weight greater than 650 Da, wherein the polymer system comprises an m -nitrophenylurea moiety and wherein the weight average molecular weight is determined according to the method mentioned in the specification.
A mobile terminal with a periscope lens module, wherein the periscope lens module comprises a lens assembly, wherein the lens assembly comprises an enclosure , a first lens , and a plurality of second lenses, wherein the enclosure comprises a first cylinder and a second cylinder connected to the first cylinder , a diameter of the first cylinder is greater than a diameter of the second cylinder , at least one gap penetrating the first cylinder is disposed on a sidewall of the first cylinder , wherein an edge that is of each gap and that is located on an outside of the first cylinder is set to a cutting surface , and a distance from a center of the first lens to the cutting surface of the first lens is less than d+e, wherein d is the radius of the first lens and e is the sidewall thickness of the first cylinder; wherein the distance from the center of the first lens to the cutting surface is not less than the radius of the first lens ; and the first lens is fastened in the first cylinder , the plurality of second lenses are fastened in the second cylinder , and the first lens , the plurality of second lenses, the first cylinder , and the second cylinder are coaxially disposed; wherein one of the at least one gap faces to a rear housing of the mobile terminal. wherein the distance from the center of the first lens to the cutting surface is not less than the radius of the first lens ; and the first lens is fastened in the first cylinder , the plurality of second lenses are fastened in the second cylinder , and the first lens , the plurality of second lenses, the first cylinder , and the second cylinder are coaxially disposed; wherein one of the at least one gap faces to a rear housing of the mobile terminal.
An Air Handling Unit, AHU, for a building having an extract air channel comprising at least one extract air inlet for guiding exhaust air from a building to the outside through at least one extract air outlet and a supply air channel comprising at least one supply air inlet for guiding fresh air from the outdoor into a building through at least one supply air outlet , said extract air channel and said supply air channel being in a heat exchanging relation to each other via a heat exchanger , said AHU further comprising a damper arrangement comprising a short cut damper which controls a flow in a shortcut connection between the extract air channel and the supply air channel and an Electronic Control Unit (ECU) characterized in that said ECU is programmed to control the short cut damper when the short cut damper is changed from being in a first, open position (I) to a second, closed position (II) to be in a transition mode (III) before it will be in the second, closed position (II), said transition mode (III) being programmed to set the short cut damper to oscillate or vibrate after there has been a defrost cycle performed in the AHU .
A method for analysing performance of a telecommunications network, the method comprising: assembling values observed for a network performance parameter over a time window ; constructing a time series by associating each performance parameter value with a representation of a time at which the value was observed ; encoding the time series to generate a compressed representation of the time series ; decoding the compressed representation of the time series to reconstruct the time series ; calculating a reconstruction error between the time series and the reconstructed time series ; and analysing the reconstruction error to determine if the assembled performance parameter values indicate an anomalous behaviour during the time window . assembling values observed for a network performance parameter over a time window ; constructing a time series by associating each performance parameter value with a representation of a time at which the value was observed ; encoding the time series to generate a compressed representation of the time series ; decoding the compressed representation of the time series to reconstruct the time series ; calculating a reconstruction error between the time series and the reconstructed time series ; and analysing the reconstruction error to determine if the assembled performance parameter values indicate an anomalous behaviour during the time window .
Photonic chip comprising: - a substrate that mainly extends in a plane called the "substrate plane", - a first waveguide that mainly extends parallel to the substrate plane and the core of which is made of III-V material, - a second waveguide that mainly extends parallel to the substrate plane and the core of which is made of silicon, - an optical coupler able to transfer, between the start and end of a coupling region, at least some of an optical signal propagating, at the start of the coupling region, through one of the first and second waveguides to the other of the first and second waveguides, this optical coupler comprising to this end: - a first extension made of III-V material that extends the core of the first waveguide into the coupling region, - a second extension made of silicon that extends the core of the second waveguide into the coupling region, this second extension lying facing the first extension, characterized in that the optical coupler comprises an SiGe inclusion embedded in the second extension , this inclusion: - being made of SiGe the chemical formula of which is Si 1-x Ge x , where x is comprised between 0.2 and 0.5, and - being optically coupled, on a first side, to the first waveguide and, on an opposite second side, to the second waveguide . - a substrate that mainly extends in a plane called the "substrate plane", - a first waveguide that mainly extends parallel to the substrate plane and the core of which is made of III-V material, - a second waveguide that mainly extends parallel to the substrate plane and the core of which is made of silicon, - an optical coupler able to transfer, between the start and end of a coupling region, at least some of an optical signal propagating, at the start of the coupling region, through one of the first and second waveguides to the other of the first and second waveguides, this optical coupler comprising to this end: - a first extension made of III-V material that extends the core of the first waveguide into the coupling region, - a second extension made of silicon that extends the core of the second waveguide into the coupling region, this second extension lying facing the first extension, - being made of SiGe the chemical formula of which is Si 1-x Ge x , where x is comprised between 0.2 and 0.5, and - being optically coupled, on a first side, to the first waveguide and, on an opposite second side, to the second waveguide .
A method for target detection of a vehicle, comprising: collecting driving path data of the vehicle; detecting position data of a target; correcting the driving path data of the vehicle and the position data of the target on the basis of a moving distance and a moving angle of the vehicle when the vehicle is turning; and identifying a relative position of the target with respect to the vehicle on the basis of both the corrected driving path data of the vehicle and the position data of the target wherein the collecting the driving path data comprises, when the vehicle is turning, deriving past movement coordinates of the vehicle according to the moving distance and the moving angle on the basis of current reference coordinates of the vehicle characterized in that the correcting the driving path data and the position data comprises deriving a plurality of past movement coordinates and position coordinates of the target detected from each past movement coordinate, and correcting the past movement coordinates and the position coordinates so that the past movement coordinates and the position coordinates are arranged in one direction. collecting driving path data of the vehicle; detecting position data of a target; correcting the driving path data of the vehicle and the position data of the target on the basis of a moving distance and a moving angle of the vehicle when the vehicle is turning; and identifying a relative position of the target with respect to the vehicle on the basis of both the corrected driving path data of the vehicle and the position data of the target wherein the collecting the driving path data comprises, when the vehicle is turning, deriving past movement coordinates of the vehicle according to the moving distance and the moving angle on the basis of current reference coordinates of the vehicle characterized in that the correcting the driving path data and the position data comprises deriving a plurality of past movement coordinates and position coordinates of the target detected from each past movement coordinate, and correcting the past movement coordinates and the position coordinates so that the past movement coordinates and the position coordinates are arranged in one direction.
A package comprising: a main body having an internal space and an opening in communication between the internal space and an outside; and a pair of resin adhesive parts disposed so as to be capable of being brought into contact with each other for sealing the opening , a 90-degree peel force between the pair of resin adhesive parts adhered to each other being 0.02 N or more, a coefficient of dynamic friction of each of the two resin adhesive part configuring the pair of resin adhesive parts being 1.50 or less, and a tack force of each of the two resin adhesive part configuring the pair of resin adhesive parts being 1.60 N or less, characterized in that the resin adhesive parts are made of a cured product of a resin composition comprising a resin, a curing agent capable of curing the resin, and a silicone-based surface modifier. a main body having an internal space and an opening in communication between the internal space and an outside; and a pair of resin adhesive parts disposed so as to be capable of being brought into contact with each other for sealing the opening , a 90-degree peel force between the pair of resin adhesive parts adhered to each other being 0.02 N or more, a coefficient of dynamic friction of each of the two resin adhesive part configuring the pair of resin adhesive parts being 1.50 or less, and a tack force of each of the two resin adhesive part configuring the pair of resin adhesive parts being 1.60 N or less,
A driving circuit for a MEMS gyroscope operating on the basis of the Coriolis effect, configured to supply drive signals (D 1 , D 2 ) to a mobile mass of the MEMS gyroscope to cause a driving movement thereof at an oscillation frequency (f d ), said driving circuit comprising: an input stage , designed to receive at least one electrical quantity (ΔC) indicative of the driving movement of said mobile mass and configured to generate at least one drive-detection signal (V SD ) based on said electrical quantity; a measurement stage , configured to measure an oscillation amplitude (A 0 ) of said driving movement as a function of said drive-detection signal (V SD ); and a control stage , configured to generate said drive signals (D 1 , D 2 ) based on a feedback control of the oscillation amplitude, characterized by said measurement stage being designed to operate in the digital domain and configured to perform a measurement of a time interval (Δt) during which said drive-detection signal (V SD ) is greater than an amplitude threshold (A th ) and to measure said oscillation amplitude (A 0 ) as a function of said time interval (Δt). an input stage , designed to receive at least one electrical quantity (ΔC) indicative of the driving movement of said mobile mass and configured to generate at least one drive-detection signal (V SD ) based on said electrical quantity; a measurement stage , configured to measure an oscillation amplitude (A 0 ) of said driving movement as a function of said drive-detection signal (V SD ); and a control stage , configured to generate said drive signals (D 1 , D 2 ) based on a feedback control of the oscillation amplitude, characterized by said measurement stage being designed to operate in the digital domain and configured to perform a measurement of a time interval (Δt) during which said drive-detection signal (V SD ) is greater than an amplitude threshold (A th ) and to measure said oscillation amplitude (A 0 ) as a function of said time interval (Δt).
A system for spinal cord stimulation of a subject comprising: a) a programmable pulse generator , b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord of said subject and configured to apply a selective stimulation to the dorsal roots of the spinal cord of said subject , wherein said pulse generator is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 Hz and 30 Hz, preferably of 30 Hz, and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 5 Hz and 100 Hz, preferably between 5 Hz and 80 Hz, more preferably between 20 Hz and 80 Hz, even more preferably between 20 Hz and 50 Hz. a) a programmable pulse generator , b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord of said subject and configured to apply a selective stimulation to the dorsal roots of the spinal cord of said subject , wherein said pulse generator is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 Hz and 30 Hz, preferably of 30 Hz, and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 5 Hz and 100 Hz, preferably between 5 Hz and 80 Hz, more preferably between 20 Hz and 80 Hz, even more preferably between 20 Hz and 50 Hz. wherein said pulse generator is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 Hz and 30 Hz, preferably of 30 Hz, and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 5 Hz and 100 Hz, preferably between 5 Hz and 80 Hz, more preferably between 20 Hz and 80 Hz, even more preferably between 20 Hz and 50 Hz.
An orthopedic implant or device comprising: a porous metal structure comprising: a porous substrate comprising a plurality of ligaments that define pores of the porous substrate; and a biocompatible metal coating on the plurality of ligaments of the porous substrate; a curable calcium phosphate composition or a cured product thereof at least partially in contact with the porous metal structure, the curable calcium phosphate composition comprising: calcium phosphate; a perfusion modifier; and a physiologically acceptable fluid, wherein the perfusion modifier comprises 0.5 wt% to 10 wt% of the curable calcium phosphate composition, and wherein the perfusion modifier is sodium alginate and/or a cellulose selected from methylcellulose, carboxymethylcellulose, hydroxypropylmethylcellulose, hydroxyethyl cellulose, a salt thereof, or a combination thereof. a porous metal structure comprising: a porous substrate comprising a plurality of ligaments that define pores of the porous substrate; and a biocompatible metal coating on the plurality of ligaments of the porous substrate; a porous substrate comprising a plurality of ligaments that define pores of the porous substrate; and a biocompatible metal coating on the plurality of ligaments of the porous substrate; a curable calcium phosphate composition or a cured product thereof at least partially in contact with the porous metal structure, the curable calcium phosphate composition comprising: calcium phosphate; a perfusion modifier; and a physiologically acceptable fluid, wherein the perfusion modifier comprises 0.5 wt% to 10 wt% of the curable calcium phosphate composition, and wherein the perfusion modifier is sodium alginate and/or a cellulose selected from methylcellulose, carboxymethylcellulose, hydroxypropylmethylcellulose, hydroxyethyl cellulose, a salt thereof, or a combination thereof. calcium phosphate; a perfusion modifier; and a physiologically acceptable fluid, wherein the perfusion modifier comprises 0.5 wt% to 10 wt% of the curable calcium phosphate composition, and wherein the perfusion modifier is sodium alginate and/or a cellulose selected from methylcellulose, carboxymethylcellulose, hydroxypropylmethylcellulose, hydroxyethyl cellulose, a salt thereof, or a combination thereof.