mhurhangee/patent-ind-claim-en huggingface dataset:
A vaginal insert device comprising: a substantially cylindrical support portion having a distal end, a proximal end , and a hollow interior section, a stabilizing portion attached to the distal end of the support portion, and a removal member attached to the vaginal insert device; the support portion having a plurality of struts extending from the distal end to the proximal end; the support portion further having an insertion mode, an in-use mode and a removal mode; wherein, in the insertion mode, the plurality of struts are twisted together so that a largest circumference of the support portion has an insertion diameter and in the in-use mode, the plurality of struts are untwisted and extended outward into a maximum convex position, so that a largest circumference of the support portion has an in-use diameter, wherein the in-use diameter is larger than the insertion diameter; and; at least one fluid passageway defined by the space between two of the plurality of struts and extending into the hollow interior section; wherein the vaginal insert device comprises a compliable resilient material such that it has an initial shape, wherein the initial shape can be subsequently formed into a stable second shape with mechanical deformation, wherein the compliable resilient material substantially reverts to its initial shape when the mechanical deformation ends. a substantially cylindrical support portion having a distal end, a proximal end , and a hollow interior section, a stabilizing portion attached to the distal end of the support portion, and a removal member attached to the vaginal insert device; the support portion having a plurality of struts extending from the distal end to the proximal end; the support portion further having an insertion mode, an in-use mode and a removal mode; wherein, in the insertion mode, the plurality of struts are twisted together so that a largest circumference of the support portion has an insertion diameter and in the in-use mode, the plurality of struts are untwisted and extended outward into a maximum convex position, so that a largest circumference of the support portion has an in-use diameter, wherein the in-use diameter is larger than the insertion diameter; and; at least one fluid passageway defined by the space between two of the plurality of struts and extending into the hollow interior section; wherein the vaginal insert device comprises a compliable resilient material such that it has an initial shape, wherein the initial shape can be subsequently formed into a stable second shape with mechanical deformation, wherein the compliable resilient material substantially reverts to its initial shape when the mechanical deformation ends.
A battery comprising a cathode , an anode and an electrolyte, wherein the cathode comprises a cathode active material which is a lithium ion intercalation-deintercalation compound, a sodium ion intercalation-deintercalation compound or a magnesium ion intercalation-deintercalation compound; the anode comprises an anode current collector that does not participate in the electrochemical reaction; the electrolyte comprises a solvent capable of dissolving active ions that can be reduced to a metal during a charge cycle and be oxidized from the metal to the dissolved active ions during a discharge cycle and lithium ions, sodium ions or magnesium ions that can deintercalate from the cathode active material during the charge cycle and intercalate into the cathode active material during the discharge cycle, wherein the pH range of the electrolyte is 3 to 7; and the anode further comprises an anode active material which is formed on the anode current collector and which is the metal selected from Zn, Fe, Cr, Cu, Mn, Ni and a combination thereof.
A method of producing a high-voltage transistor device, comprising: - forming isolation regions in a semiconductor substrate , the isolation regions confining a striplike area , - forming a drain region of a first type of electrical conductivity and a body region of a second type of electrical conductivity, which is opposite to the first type of conductivity, at opposite ends of the striplike area , - forming a gate electrode above the body region , - implanting a dopant for the first type of conductivity in the striplike area , and - forming a source region of the first type of conductivity in the body region , wherein - the implantation is performed in such a way that the dopant for the first type of conductivity does not exceed a maximal depth of the isolation regions , and - a dopant for the second type of conductivity is implanted in the striplike area in such a way that the dopant does not exceed the maximal depth of the isolation regions and a net doping of the second type of conductivity is obtained in an adjustment region , characterized in that - the adjustment region is formed using a mask having an opening that is limited by an edge arranged obliquely with respect to a longitudinal extension of the striplike area to implant the dopant for the second type of conductivity in the striplike area , and - the implantations of the dopants for the first and second types of conductivity in the striplike area between the isolation regions are performed in a way that is self-aligned with respect to the gate electrode . - forming isolation regions in a semiconductor substrate , the isolation regions confining a striplike area , - forming a drain region of a first type of electrical conductivity and a body region of a second type of electrical conductivity, which is opposite to the first type of conductivity, at opposite ends of the striplike area , - forming a gate electrode above the body region , - implanting a dopant for the first type of conductivity in the striplike area , and - forming a source region of the first type of conductivity in the body region , wherein - the implantation is performed in such a way that the dopant for the first type of conductivity does not exceed a maximal depth of the isolation regions , and - a dopant for the second type of conductivity is implanted in the striplike area in such a way that the dopant does not exceed the maximal depth of the isolation regions and a net doping of the second type of conductivity is obtained in an adjustment region , - the adjustment region is formed using a mask having an opening that is limited by an edge arranged obliquely with respect to a longitudinal extension of the striplike area to implant the dopant for the second type of conductivity in the striplike area , and - the implantations of the dopants for the first and second types of conductivity in the striplike area between the isolation regions are performed in a way that is self-aligned with respect to the gate electrode .
A tempering device for being arranged on a surface to be tempered, having at least one upper part , at least one lower part and at least one first tempering element , wherein the upper part is arranged opposite an upper side of the first tempering element , and the lower part is arranged opposite a lower side of the first tempering element , wherein the lower part and the upper part are formed in a manner and in engagement with one another such that a surface pressure onto the upper side and the lower side of the first tempering element is provided by means of the upper part and the lower part , and the lower part is dimensionally couplable to the surface to be tempered, wherein the tempering device has a first end cap element and a second end cap element , wherein the upper part , the first end cap element and the second end cap element each are arranged at the lower part , characterized in that the second end cap element has a base body and a fixing clamp for fixing the base body to the surface to be tempered, wherein the fixing clamp is arranged within a recess of the base body such that a change in length of the tempering device is compensable by means of an elastic deformation of the fixing clamp . wherein the lower part and the upper part are formed in a manner and in engagement with one another such that a surface pressure onto the upper side and the lower side of the first tempering element is provided by means of the upper part and the lower part , and the lower part is dimensionally couplable to the surface to be tempered, wherein the tempering device has a first end cap element and a second end cap element , wherein the upper part , the first end cap element and the second end cap element each are arranged at the lower part , characterized in that the second end cap element has a base body and a fixing clamp for fixing the base body to the surface to be tempered, wherein the fixing clamp is arranged within a recess of the base body such that a change in length of the tempering device is compensable by means of an elastic deformation of the fixing clamp .
A heat ray cutting film consisting of a substrate , a light reflecting layer X1 , a light reflecting layer X2 , and an infrared ray absorbing layer in this order, wherein the infrared ray absorbing layer comprising composite tungsten oxide microparticles, wherein each of the light reflecting layer X1 and the light reflecting layer X2 is a layer obtained by fixing cholesteric liquid crystalline phase, wherein the light reflecting layer X1 and the light reflecting layer X2 reflect lights circularly polarized in directions opposite to each other, and wherein reflection center wavelengths of the light reflecting layer X1 and the light reflecting layer X2 are substantially equal to each other within a range of 800 to 1100 nm, wherein a total reflectivity of all light reflecting layers obtained by fixing cholesteric liquid crystalline phases is 80% or more, wherein the light reflecting layer X1 is arranged on a surface of the substrate , wherein the infrared ray absorbing layer is arranged on a surface of the light reflecting layer X2 , and wherein the light reflecting layer X2 is arranged on a surface of light reflecting layer X1 . wherein the infrared ray absorbing layer comprising composite tungsten oxide microparticles, wherein each of the light reflecting layer X1 and the light reflecting layer X2 is a layer obtained by fixing cholesteric liquid crystalline phase, wherein the light reflecting layer X1 and the light reflecting layer X2 reflect lights circularly polarized in directions opposite to each other, and wherein reflection center wavelengths of the light reflecting layer X1 and the light reflecting layer X2 are substantially equal to each other within a range of 800 to 1100 nm, wherein a total reflectivity of all light reflecting layers obtained by fixing cholesteric liquid crystalline phases is 80% or more, wherein the light reflecting layer X1 is arranged on a surface of the substrate , wherein the infrared ray absorbing layer is arranged on a surface of the light reflecting layer X2 , and wherein the light reflecting layer X2 is arranged on a surface of light reflecting layer X1 .
A pharmaceutical composition comprising polyacrylonitrile (PANi), elastin (E), and collagen (C) together forming a polyacrylonitrile (PANi), elastin (E), collagen (C) polymer network (PANi-E-C).
A ventilation system comprising a breathing apparatus for providing mechanical ventilation to a patient , the breathing apparatus being configured to perform an automated full recruitment manoeuvre, FRM, comprising a recruitment phase and a PEEP titration phase, and to determine at least one optimised ventilation setting for the patient during the FRM manoeuvre, characterised in that the breathing apparatus is configured to automatically switch ventilation mode to a predefined ventilation mode after the FRM manoeuvre, and to ventilate the patient in the predefined ventilation mode using the at least one optimised ventilation setting during a period of post-recruitment manoeuvre, post-RM, ventilation following the FRM manoeuvre.
A genetically modified rodent whose genome comprises a mutation in exon 3 or exon 5 of an endogenous rodent Rsl gene, wherein: - the mutation in exon 3 encodes a C59S amino acid substitution in the endogenous rodent Rs1 polypeptide, and the mutation in exon 5 encodes a R141C amino acid substitution in the endogenous rodent Rs1 polypeptide; - the rodent is a mouse or rat; and - the rodent displays one or more symptoms of Retinoschisis when the rodent is a female rodent homozygous for the mutation, or when the rodent is a male rodent hemizygous for the mutation. - the mutation in exon 3 encodes a C59S amino acid substitution in the endogenous rodent Rs1 polypeptide, and the mutation in exon 5 encodes a R141C amino acid substitution in the endogenous rodent Rs1 polypeptide; - the rodent is a mouse or rat; and - the rodent displays one or more symptoms of Retinoschisis when the rodent is a female rodent homozygous for the mutation, or when the rodent is a male rodent hemizygous for the mutation.
A method performed by a network node for notifying a driver of a vehicle about his or her driving, the method comprising: - receiving vehicle related information over a wireless communication network from a communication device capable of receiving data from a data collector of the vehicle , - processing the vehicle related information by calculating a driving indicator indicating a driving style of the driver of the vehicle based on the vehicle related information and comparing the established driving indicator to driving indicators established for one or more drivers of a respective vehicle located within a first distance of the vehicle to establish a driving indicator of a driver of the vehicle in relation to one or more other drivers, and - transmitting to the communication device data indicating the driving indicator of the driver of the vehicle in relation to other drivers. - receiving vehicle related information over a wireless communication network from a communication device capable of receiving data from a data collector of the vehicle , - processing the vehicle related information by calculating a driving indicator indicating a driving style of the driver of the vehicle based on the vehicle related information and comparing the established driving indicator to driving indicators established for one or more drivers of a respective vehicle located within a first distance of the vehicle to establish a driving indicator of a driver of the vehicle in relation to one or more other drivers, and - transmitting to the communication device data indicating the driving indicator of the driver of the vehicle in relation to other drivers.
A sizing composition, comprising: 25 wt% to 80 wt% starch based on dry components; 15 wt% to 60 wt% cationic multivalent salt based on dry components; and an organic additive selected from: a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; wherein the cationic multivalent salt is made up of a polyvalent metallic ion and an anion; wherein the organic additive is present at from 0.1 wt.% to 10 wt.%. 25 wt% to 80 wt% starch based on dry components; 15 wt% to 60 wt% cationic multivalent salt based on dry components; and an organic additive selected from: a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; a water-swellable polymer having a weight average molecular weight ranging from 150,000 Mw to 1,000,000 Mw, a wax, or both the water-swellable polymer and the wax; wherein the cationic multivalent salt is made up of a polyvalent metallic ion and an anion; wherein the organic additive is present at from 0.1 wt.% to 10 wt.%.
Method for locating a vehicle situated within a parking area using a plurality of WLAN base stations each comprising an antenna array , wherein the vehicle comprises a communication interface for communicating with the WLAN base stations via a wireless WLAN communication network, wherein the method comprises the following steps of: - receiving , by means of the respective antenna array , a radio signal transmitted by means of the communication interface of the vehicle via the wireless communication network, - determining a respective angle of incidence of the respective received radio signal relative to a respective normal of the antenna array, - determining a signal intensity of the respective received radio signal, - carrying out a triangulation using the determined angles of incidence and the determined signal intensities in order to locate the vehicle within the parking area . - receiving , by means of the respective antenna array , a radio signal transmitted by means of the communication interface of the vehicle via the wireless communication network, - determining a respective angle of incidence of the respective received radio signal relative to a respective normal of the antenna array, - determining a signal intensity of the respective received radio signal, - carrying out a triangulation using the determined angles of incidence and the determined signal intensities in order to locate the vehicle within the parking area .
A distributed computing facility comprising: nodes configured to execute jobs of distributed computing; and memory storing code executable by the nodes or a processor to forecast power consumption by the distributed computing facility , comprising to: forecast sequence of jobs execution on a system of the nodes over time; estimate power for the jobs of the system; and develop a system-level power forecast of the system , wherein the system-level power forecast is correlative with the sequence of job execution and the power for the jobs; and characterized in that : the code is executable to activate or increase local energy generation in response to the forecast of power consumption exceeding a specified demand , and wherein the system-level power forecast comprises a predicted power profile of the system. nodes configured to execute jobs of distributed computing; and memory storing code executable by the nodes or a processor to forecast power consumption by the distributed computing facility , comprising to: forecast sequence of jobs execution on a system of the nodes over time; estimate power for the jobs of the system; and develop a system-level power forecast of the system , wherein the system-level power forecast is correlative with the sequence of job execution and the power for the jobs; and characterized in that : the code is executable to activate or increase local energy generation in response to the forecast of power consumption exceeding a specified demand , and wherein the system-level power forecast comprises a predicted power profile of the system. forecast sequence of jobs execution on a system of the nodes over time; estimate power for the jobs of the system; and develop a system-level power forecast of the system , wherein the system-level power forecast is correlative with the sequence of job execution and the power for the jobs; and characterized in that : the code is executable to activate or increase local energy generation in response to the forecast of power consumption exceeding a specified demand , and wherein the system-level power forecast comprises a predicted power profile of the system.
A motor control apparatus, comprising: an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit provided between the inverter and the motor to detect a motor driving current applied to the motor; and a control unit configured to calculate a reference voltage based on the motor driving current and a reference motor speed, to generate the control signal based on the reference voltage and a triangular carrier wave, and to output the control signal to the inverter, characterized in that the control unit is configured to calculate a speed of the motor based on the motor driving current, to generate a reference current based on the reference motor speed and the calculated motor speed, to sample the motor driving current at least twice within a period of the triangular carrier wave and calculates the reference voltage based on the sampled motor driving current at least twice within a period of the triangular carrier wave. an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit provided between the inverter and the motor to detect a motor driving current applied to the motor; and a control unit configured to calculate a reference voltage based on the motor driving current and a reference motor speed, to generate the control signal based on the reference voltage and a triangular carrier wave, and to output the control signal to the inverter, characterized in that the control unit is configured to calculate a speed of the motor based on the motor driving current, to generate a reference current based on the reference motor speed and the calculated motor speed, to sample the motor driving current at least twice within a period of the triangular carrier wave and calculates the reference voltage based on the sampled motor driving current at least twice within a period of the triangular carrier wave.
An anti-sclerostin antibody for use in a method of increasing alveolar bone height in a subject suffering from alveolar bone loss, where the subject has periodontal disease, the method comprising administering to the subject an anti-sclerostin antibody in an amount effective to decrease the distance between the cement-enamel junction and the alveolar bone crest, at a dose from 5 mg to 1,000 mg per week, and wherein the anti-sclerostin antibody comprises heavy chains comprising SEQ ID NO: 378 and light chains comprising SEQ ID NO: 376.
A system comprising: a powered device configured for receiving power from a power source device via a channel , the powered device comprising a base load and one or more optional loads ; the system being characterized by a sub-system configured for: determining a maximum power that can be carried by the channel to the powered device based on a determined channel type of the channel ; determining a power requirement for the base load ; determining a respective power requirement for each of the one or more optional loads , and based on the determined maximum power that can be carried by the channel to the powered device and based on the respective power requirements for the base load and the one or more optional loads , configuring the powered device to operate the base load and all or a subset of the one or more optional loads . a powered device configured for receiving power from a power source device via a channel , the powered device comprising a base load and one or more optional loads ; the system being characterized by a sub-system configured for: determining a maximum power that can be carried by the channel to the powered device based on a determined channel type of the channel ; determining a power requirement for the base load ; determining a respective power requirement for each of the one or more optional loads , and based on the determined maximum power that can be carried by the channel to the powered device and based on the respective power requirements for the base load and the one or more optional loads , configuring the powered device to operate the base load and all or a subset of the one or more optional loads . determining a maximum power that can be carried by the channel to the powered device based on a determined channel type of the channel ; determining a power requirement for the base load ; determining a respective power requirement for each of the one or more optional loads , and based on the determined maximum power that can be carried by the channel to the powered device and based on the respective power requirements for the base load and the one or more optional loads , configuring the powered device to operate the base load and all or a subset of the one or more optional loads .