mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving an input indicative of respective measured locations of a plurality of points disposed along a length of a probe inside a body of a subject; applying a model of known mechanical properties of the probe to the respective measured locations so as to minimize a first cost function with respect to shapes that can be assumed by the probe in the body; choosing a shape responsively to the minimized first cost function and determining preliminary coordinates of the measured locations responsively to the shape; characterized by minimizing a second cost function with respect to differences between the measured locations and the preliminary coordinates; and generating corrected coordinates of the points along the length of the probe based on the minimized second cost function. receiving an input indicative of respective measured locations of a plurality of points disposed along a length of a probe inside a body of a subject; applying a model of known mechanical properties of the probe to the respective measured locations so as to minimize a first cost function with respect to shapes that can be assumed by the probe in the body; choosing a shape responsively to the minimized first cost function and determining preliminary coordinates of the measured locations responsively to the shape; characterized by minimizing a second cost function with respect to differences between the measured locations and the preliminary coordinates; and generating corrected coordinates of the points along the length of the probe based on the minimized second cost function.
A pneumatic tire, comprising: a sealant layer located radially inside an innerliner; and a sound-absorbing layer located radially inside the sealant layer , the sound-absorbing layer is formed of a porous sound-absorbing material in an inner periphery of the sealant layer , wherein the sound-absorbing layer is a continuous layer, characterised in that the sound-absorbing layer is formed by applying a liquid composition to an inner periphery of the sealant layer , allowing the applied liquid composition to gel, and foaming and drying the gelled liquid composition, and in that the sound-absorbing layer has a dry mass of 2% to 5% by mass, based on a total mass of the tire excluding the sealant layer taken as 100% by mass, the dry mass of the sound-absorbing layer being determined using the following equation: Dry mass of sound-absorbing layer = [ ( Dry mass of tire after formation of sound-absorbing layer ) − ( Dry mass of tire before formation of sound-absorbing layer ) ] / ( Dry mass of tire before formation of sealant layer ) × 100 , with the dry mass of sound-absorbing layer being expressed in % by mass and the dry mass of tire being expressed in parts by mass. a sealant layer located radially inside an innerliner; and a sound-absorbing layer located radially inside the sealant layer , the sound-absorbing layer is formed of a porous sound-absorbing material in an inner periphery of the sealant layer , wherein the sound-absorbing layer is a continuous layer, characterised in that the sound-absorbing layer is formed by applying a liquid composition to an inner periphery of the sealant layer , allowing the applied liquid composition to gel, and foaming and drying the gelled liquid composition, and in that the sound-absorbing layer has a dry mass of 2% to 5% by mass, based on a total mass of the tire excluding the sealant layer taken as 100% by mass, the dry mass of the sound-absorbing layer being determined using the following equation: Dry mass of sound-absorbing layer = [ ( Dry mass of tire after formation of sound-absorbing layer ) − ( Dry mass of tire before formation of sound-absorbing layer ) ] / ( Dry mass of tire before formation of sealant layer ) × 100 , with the dry mass of sound-absorbing layer being expressed in % by mass and the dry mass of tire being expressed in parts by mass.
Circuit for inrush-current limiting in a power supply unit, comprising a first storage capacitor (C2) which forms a voltage source for components to be supplied by the power supply unit, a switch (S2) for activating a pulsating DC voltage to the first storage capacitor (C2) in order to charge the first storage capacitor (C2), and a determination device for determining a voltage minimum of the pulsating DC voltage and for switching on the switch (S2) at a voltage minimum, characterized by a shut-off device for shutting off the determination device after the switch (S2) has been switched on. a first storage capacitor (C2) which forms a voltage source for components to be supplied by the power supply unit, a switch (S2) for activating a pulsating DC voltage to the first storage capacitor (C2) in order to charge the first storage capacitor (C2), and a determination device for determining a voltage minimum of the pulsating DC voltage and for switching on the switch (S2) at a voltage minimum, characterized by a shut-off device for shutting off the determination device after the switch (S2) has been switched on.
An accommodating intraocular lens (AIOL) system for placement within a lens capsule of a subject, the AIOL system comprising: an accommodating lens unit including- a first component having a first optical component , a second component having a second optical component posterior with respect to the first optical component , a chamber between the first optical component and the second optical component , and a fluid reservoir extending at least partially around the chamber , wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir , optical fluid can flow between the fluid reservoir and the chamber , and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir ; and a fixed lens having a constant optical power, the fixed lens being configured to be removably coupled to the accommodating lens unit such that the fixed lens is anterior of and spaced apart from the first optical component of the accommodating lens unit. an accommodating lens unit including- a first component having a first optical component , a second component having a second optical component posterior with respect to the first optical component , a chamber between the first optical component and the second optical component , and a fluid reservoir extending at least partially around the chamber , wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir , optical fluid can flow between the fluid reservoir and the chamber , and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir ; and a first component having a first optical component , a second component having a second optical component posterior with respect to the first optical component , a chamber between the first optical component and the second optical component , and a fluid reservoir extending at least partially around the chamber , wherein - the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir , optical fluid can flow between the fluid reservoir and the chamber , and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir ; and the chamber and the fluid reservoir are in fluid communication and wherein, in response to forces exerted on the fluid reservoir , optical fluid can flow between the fluid reservoir and the chamber , and the optical fluid in the chamber and the first optical component define an optical power that changes dynamically based on the forces exerted on the fluid reservoir ; and a fixed lens having a constant optical power, the fixed lens being configured to be removably coupled to the accommodating lens unit such that the fixed lens is anterior of and spaced apart from the first optical component of the accommodating lens unit.
A system for certifying physical parameters of fiber optic cabling, the system comprising: a test device operably couplable to an end of a fiber optic cable , wherein the test device is operable to inject light into the fiber optic cable and conduct a certification test of physical parameters of the fiber optic cable , and wherein, based on observation of interaction of the injected light with the fiber optic cable, the test device is further operable to: produce data representing one or more physical parameters of the fiber optic cable , evaluate the one or more physical parameters of the fiber optic cable by accessing information indicating established parameters of at least one predetermined standard that sets forth objective requirements that the fiber optic cable must meet and comparing the data to the established parameters, and certify whether the one or more physical parameters satisfy one or more corresponding parameters specified by the predetermined standard; and a wireless device operably couplable to the test device, wherein the wireless device is configured to wirelessly communicate a control signal to the test device for controlling an operation of the certification test, and wherein the wireless device is further operable to wirelessly receive a result of the certification test from the test device. produce data representing one or more physical parameters of the fiber optic cable , evaluate the one or more physical parameters of the fiber optic cable by accessing information indicating established parameters of at least one predetermined standard that sets forth objective requirements that the fiber optic cable must meet and comparing the data to the established parameters, and certify whether the one or more physical parameters satisfy one or more corresponding parameters specified by the predetermined standard; and a wireless device operably couplable to the test device, wherein the wireless device is configured to wirelessly communicate a control signal to the test device for controlling an operation of the certification test, and wherein the wireless device is further operable to wirelessly receive a result of the certification test from the test device.
An aerosol spray can or pressure can of the two-component type, having an internal cartridge and a unidirectional movement activation device of said internal cartridge , said aerosol spray can further comprising a can body in which the cartridge is coaxially inserted and stabilized, the cartridge being coupled with the activation device, said activation device comprising a throttle lever housed in a recessed portion of an upper face or of a lower face of the can body from which protrudes a shaped appendix of the cartridge , said shaped appendix forming a tang for connection to the throttle lever , the throttle lever having a central part, the central part defining a circular core from which two opposing branches of the throttle lever extend, the circular core reducing its internal diameter to form a circular mouth starting from a circular crown , the circular core being provided with a series of shaped recesses , which extend at least partly circumferentially along the internal side surface of the core, characterised in that said shaped recesses are adapted to cooperate with complementary protrusions which extend on at least one part of the circumference of a bush , said bush being engaged in the circular mouth of the throttle lever and connected to the shaped appendix of the cartridge , whereby the protrusions of the bush engage in the shaped recesses and, like the latter, define a clockwise orientation which imposes to the throttle lever a right-hand rotation for the activation of the cartridge , starting from its shaped appendix .
A touch panel comprising: a substrate ; a plurality of first detection electrodes formed on the substrate and extending in one direction; a plurality of first lead wires formed on the substrate and connected to the plurality of first detection electrodes ; a plurality of second detection electrodes formed so as to cross the plurality of first detection electrodes ; a plurality of second lead wires connected to the plurality of second detection electrodes ; and a first shield layer formed on the substrate extending so as to overlap the plurality of second lead wires in a plan view, characterized in that the first shield layer has an extending length configured such that a resonance phenomenon does not occur at a plurality of frequencies in a specific range, wherein the extending length is not equal to λ/n, λ being a wavelength related to any of the frequencies in the specific range, wherein n is an even natural number. a substrate ; a plurality of first detection electrodes formed on the substrate and extending in one direction; a plurality of first lead wires formed on the substrate and connected to the plurality of first detection electrodes ; a plurality of second detection electrodes formed so as to cross the plurality of first detection electrodes ; a plurality of second lead wires connected to the plurality of second detection electrodes ; and a first shield layer formed on the substrate extending so as to overlap the plurality of second lead wires in a plan view, characterized in that the first shield layer has an extending length configured such that a resonance phenomenon does not occur at a plurality of frequencies in a specific range, wherein the extending length is not equal to λ/n, λ being a wavelength related to any of the frequencies in the specific range, wherein n is an even natural number.
A compressor, comprising: a casing including a tubular barrel casing and an end casing covering an opening of an end portion of the barrel casing ; a housing provided inside the casing ; a first weld (Ma) formed by welding the barrel casing and the housing together; and a second weld (N) formed by welding the barrel casing and the end casing together over a predetermined length in a circumferential direction (D) of the barrel casing , the second weld (N) including a repeatedly welded portion (NB) formed by one end portion and another end portion of the second weld (N) overlapping each other, or the second weld (N) comprising a plurality of second welds (N) each of which includes a repeatedly welded portion (NB) formed by an end portion of the second weld (N) and an end portion of another one of the second welds (N) overlapping each other, characterised in that the repeatedly welded portion (NB) and the first weld (Ma) being aligned along an axial direction (Z) of the barrel casing . a casing including a tubular barrel casing and an end casing covering an opening of an end portion of the barrel casing ; a housing provided inside the casing ; a first weld (Ma) formed by welding the barrel casing and the housing together; and a second weld (N) formed by welding the barrel casing and the end casing together over a predetermined length in a circumferential direction (D) of the barrel casing , the second weld (N) including a repeatedly welded portion (NB) formed by one end portion and another end portion of the second weld (N) overlapping each other, or the second weld (N) comprising a plurality of second welds (N) each of which includes a repeatedly welded portion (NB) formed by an end portion of the second weld (N) and an end portion of another one of the second welds (N) overlapping each other, characterised in that the repeatedly welded portion (NB) and the first weld (Ma) being aligned along an axial direction (Z) of the barrel casing .
Injection molded article comprising a propylene homopolymer having (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a meso sequence length (MSL4) in the range of 91.0 to 160 ; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy; and (d) a molecular weight distribution (MWD) of 7.5 or less, wherein the propylene homopolymer is not having the following properties: Melt flow rate (MFR), determined at 230°C and under a load of 2.16 kg according to ISO 1133 [g/10min] 76 melting temperature (T m ) [°C] 161 crystallization temperature (T c ) [°C] 115 glass transition temperature (Tg) [°C] 2.0 Xylene cold solubles (XCS) [wt.-%] 3.3 mmmm pentad fraction (mmmm) [%] 93.2 triad syndiotacticity rr (rr) [%] 2.0 meso sequence length MSL2 [-] 76 meso sequence length MSL4 [-] 92 Flexural Modulus [MPa] 1472 Shrinkage in flow (SH in flow) [%] 1.1 Shrinkage across flow (SH across flow) [%] 1.3 REact 3835 Clarity (0.1 mm) [%] 61 determined as described herein. (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a meso sequence length (MSL4) in the range of 91.0 to 160 ; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy; and "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, (d) a molecular weight distribution (MWD) of 7.5 or less, wherein the propylene homopolymer is not having the following properties: Melt flow rate (MFR), determined at 230°C and under a load of 2.16 kg according to ISO 1133 [g/10min] 76 melting temperature (T m ) [°C] 161 crystallization temperature (T c ) [°C] 115 glass transition temperature (Tg) [°C] 2.0 Xylene cold solubles (XCS) [wt.-%] 3.3 mmmm pentad fraction (mmmm) [%] 93.2 triad syndiotacticity rr (rr) [%] 2.0 meso sequence length MSL2 [-] 76 meso sequence length MSL4 [-] 92 Flexural Modulus [MPa] 1472 Shrinkage in flow (SH in flow) [%] 1.1 Shrinkage across flow (SH across flow) [%] 1.3 REact 3835 Clarity (0.1 mm) [%] 61 determined as described herein.
A vaginal insert device comprising: a support portion having a distal end and a proximal end, the support portion having a plurality of foldable areas extending from the distal end to the proximal end, wherein the largest outer circumference of the support portion has an insertion diameter when the plurality of foldable areas are compressed and folded inward into an insertion position; a stabilizing portion attached to the distal end of the support portion; a plurality of fluid passageways each defined by a space extending through the support portion from the distal end and terminating at the proximal end of the support portion; and a removal member attached to the vaginal insert device; wherein the vaginal insert device comprises a compliable resilient material such that it can be shaped into an initial shape, which initial shape can subsequently be formed into a stable second shape with mechanical deformation, wherein the compliable resilient material substantially reverts to its initial shape when the mechanical defomation ends, wherein vaginal insert device is in the stable second shape in the insertion position; wherein the plurality of foldable areas extend straight down from the distal end to the proximal end, wherein the plurality of passageways provide space for the plurality of foldable areas to compress inward into the insertion position. a support portion having a distal end and a proximal end, the support portion having a plurality of foldable areas extending from the distal end to the proximal end, wherein the largest outer circumference of the support portion has an insertion diameter when the plurality of foldable areas are compressed and folded inward into an insertion position; a stabilizing portion attached to the distal end of the support portion; a plurality of fluid passageways each defined by a space extending through the support portion from the distal end and terminating at the proximal end of the support portion; and a removal member attached to the vaginal insert device; wherein the vaginal insert device comprises a compliable resilient material such that it can be shaped into an initial shape, which initial shape can subsequently be formed into a stable second shape with mechanical deformation, wherein the compliable resilient material substantially reverts to its initial shape when the mechanical defomation ends, wherein vaginal insert device is in the stable second shape in the insertion position; wherein the plurality of foldable areas extend straight down from the distal end to the proximal end, wherein the plurality of passageways provide space for the plurality of foldable areas to compress inward into the insertion position.
A method of making a can end, the method comprising: providing a can end capable of having (i) an unopened configuration in which the end is sealed and (ii) an opened configuration in which, after application of the end to a can body , the contents of the can are accessible, the can end comprising: an end shell and a pull tab , the pull tab having an orientation that is approximately parallel to a center panel of the end shell in the unopened configuration, the pull tab being capable of being actuated to a part vertical position by lifting an end of the pull tab to rupture a score on the center panel and thereby achieve the opened configuration; characterised by : marking the can end with first and second two dimensional codes capable of being read on a handheld wireless communication device and located respectively on a topside and underside of the pull tab the codes having a size of no more than 6mm by 6mm, wherein the topside code and underside code are configured to interact with one another to enable a user of the can end to play a game.
Surface cleaning machine, comprising at least one cleaning roller , a drive device for driving the at least one cleaning roller in rotation, a wetting device for applying cleaning liquid to the at least one cleaning roller , and a suction unit device for generating a suction flow, which suction unit device is operatively connected for fluid communication with at least one suction channel and at least one suction mouth which is associated with the at least one cleaning roller , characterized in that the wetting device comprises at least one pressure-controlled switch which, in an open position, opens a fluid path for cleaning liquid to the at least one cleaning roller and, in a closed position, blocks the fluid path , and in that the at least one pressure-controlled switch is operatively coupled to the at least one suction channel for pressure communication therewith, wherein, when a negative pressure is applied by a suction flow in the at least one suction channel , the at least one pressure-controlled switch goes to the open position and/or maintains the open position.