mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a composite material component comprising the following steps: (a) providing a negative form (S10); (c) applying at least one functional layer by means of thermal spraying onto the negative form (S12); (d) applying at least one fiber-reinforced plastic layer including a hardenable matrix material (S14); (e) hardening of the matrix material (S16); and (f) releasing the composite material component from the negative form (S18) to thereby obtain the composite material component , characterized in that after the step (a) and before the step (c) the following step is performed: (b) finish treating (S21) of the negative form at the surface thereof, in particular by means of polishing, grinding and/or lapping, so that the surface of the negative form has a surface characteristic S a ≤ 5 μm and a surface roughness characteristic of S z ≤ 80 μm. (a) providing a negative form (S10); (c) applying at least one functional layer by means of thermal spraying onto the negative form (S12); (d) applying at least one fiber-reinforced plastic layer including a hardenable matrix material (S14); (e) hardening of the matrix material (S16); and (f) releasing the composite material component from the negative form (S18) to thereby obtain the composite material component ,
Method performed by a base station for configuring a communication between the base station , a first user equipment being adapted to operate with a first system bandwidth and a second user equipment being adapted to operate with a second system bandwidth , wherein the first system bandwidth is broader than the second system bandwidth, and wherein the second system bandwidth operates on a spectrum chunk that resides completely inside the first system bandwidth spectrum, and wherein the base station , the first user equipment and the second user equipment are located within a cellular network system , the method comprising providing first common channels and signals within the first system bandwidth to the first user equipment, providing second common channels and signals within the second system bandwidth to the second user equipment, wherein a part of the first common signals and a part of the second common signals are common signals shared by the first system bandwidth and by the second system bandwidth, configuring at least one of the shared common signals to be used by the first user equipment and the second user equipment, and further configuring the shared part of the first common signals and the shared part of the second common signals to share at least one common symbol, the first common channels and the second common channels are separated in time. providing first common channels and signals within the first system bandwidth to the first user equipment, providing second common channels and signals within the second system bandwidth to the second user equipment, wherein a part of the first common signals and a part of the second common signals are common signals shared by the first system bandwidth and by the second system bandwidth, configuring at least one of the shared common signals to be used by the first user equipment and the second user equipment, and further configuring the shared part of the first common signals and the shared part of the second common signals to share at least one common symbol, the first common channels and the second common channels are separated in time.
A piping system for transferring heat from an exhaust gas flow (591; 591a; 591b) to a feedwater comprising: an economizer including: a first section ; a second section ; a third section ; and a fourth section ; wherein said first section, said second section, said third section, and said fourth section are within said gas flow (591; 591a; 591b); a heat exchanger which is not within said exhaust gas flow and having a cold input and hot input ; and a plurality of valves; wherein said valves can be arranged in a first configuration so a feedwater passes through the system in the following order: a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said hot input of said heat exchanger ; d) said second section of said economizer ; and e) said third and said fourth section of said economizer in any order; and wherein said valves can be arranged in a second configuration so a feedwater passes through the system in the following order: a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said third section of said economizer ; d) said hot input of said heat exchanger ; e) said second section of said economizer ; and f) said fourth section of said economizer . an economizer including: a first section ; a second section ; a third section ; and a fourth section ; wherein said first section, said second section, said third section, and said fourth section are within said gas flow (591; 591a; 591b); a first section ; a second section ; a third section ; and a fourth section ; wherein said first section, said second section, said third section, and said fourth section are within said gas flow (591; 591a; 591b); a heat exchanger which is not within said exhaust gas flow and having a cold input and hot input ; and a plurality of valves; wherein said valves can be arranged in a first configuration so a feedwater passes through the system in the following order: a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said hot input of said heat exchanger ; d) said second section of said economizer ; and e) said third and said fourth section of said economizer in any order; and a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said hot input of said heat exchanger ; d) said second section of said economizer ; and e) said third and said fourth section of said economizer in any order; and wherein said valves can be arranged in a second configuration so a feedwater passes through the system in the following order: a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said third section of said economizer ; d) said hot input of said heat exchanger ; e) said second section of said economizer ; and f) said fourth section of said economizer . a) said cold input of said heat exchanger ; b) said first section of said economizer ; c) said third section of said economizer ; d) said hot input of said heat exchanger ; e) said second section of said economizer ; and f) said fourth section of said economizer .
Dance shoe comprising a sole having an inner side and an outer side and extending in a longitudinal direction from a rear end to a front end , and an upper shoe having a foot section , wherein the outer side of the sole comprises a plurality of incisions (17a-g), the foot section has at least one recess on its underside, through which elongated connecting elements (26a-f) extend which, when the dance shoe is worn, are received at least in sections in incisions (17a-f) in the outer side of the sole , characterised in that the dance shoe further comprises a cap connected to the sole , the cap being permanently connected to the sole so that the cap and sole form a sole-cap-unit . the outer side of the sole comprises a plurality of incisions (17a-g), the foot section has at least one recess on its underside, through which elongated connecting elements (26a-f) extend which, when the dance shoe is worn, are received at least in sections in incisions (17a-f) in the outer side of the sole , characterised in that the dance shoe further comprises a cap connected to the sole , the cap being permanently connected to the sole so that the cap and sole form a sole-cap-unit .
An alarming and measuring method for a volume measuring apparatus , the volume measuring apparatus at least comprising a processor , a trigger button , a first camera , and a second camera , the trigger button , the first camera , and the second camera electrically connected with the processor , the alarming and measuring method comprising: a) controlling the first camera and the second camera to respectively capture a left image and a right image when the trigger button is pressed; b) computing the left image and the right image by the processor to generate a depth graphic correspondingly, wherein the depth graphic at least comprises a depth information of multiple characteristic points collectively exist in the left image and the right image; c) scanning the depth graphic to first determine whether an entire image of a target box is in the depth graphic ; d) computing a capturing angle of the volume measuring apparatus with respect to the target box in accordance with multiple contour lines of the entire image of the target box in the depth graphic only when the entire image of the target box is in the depth graphic ; e) determining whether the capturing angle matches a measuring condition; f) sending out an alarming signal when the entire image of the target box is inexistent in the depth graphic or the capturing angle is unmatched with the measuring condition; and g) computing a volume related data of the target box in accordance with the multiple contour lines when the capturing angle matches the measuring condition. a) controlling the first camera and the second camera to respectively capture a left image and a right image when the trigger button is pressed; b) computing the left image and the right image by the processor to generate a depth graphic correspondingly, wherein the depth graphic at least comprises a depth information of multiple characteristic points collectively exist in the left image and the right image; c) scanning the depth graphic to first determine whether an entire image of a target box is in the depth graphic ; d) computing a capturing angle of the volume measuring apparatus with respect to the target box in accordance with multiple contour lines of the entire image of the target box in the depth graphic only when the entire image of the target box is in the depth graphic ; e) determining whether the capturing angle matches a measuring condition; f) sending out an alarming signal when the entire image of the target box is inexistent in the depth graphic or the capturing angle is unmatched with the measuring condition; and g) computing a volume related data of the target box in accordance with the multiple contour lines when the capturing angle matches the measuring condition.
A method for sealing a gap between adjoining or connected solid surfaces on an aircraft, comprising applying a polysulfide or polythioether rubber to the gap to form an uncured seal over the gap, and contacting the uncured seal with a composition comprising a polysulfide rubber curing agent, a metal cation, an ionic liquid, and a liquid carrier.
Sanitary insert unit with an outlet mouthpiece that can be mounted on the water outlet of a sanitary outlet fitting and with an aerated jet regulator , wherein the jet regulator has a jet splitter and is sealed off axially by means of a sealing ring that can be clamped between the jet regulator and the outlet-side front edge of the outlet fitting, wherein the jet regulator has, on its inlet-side front face, an annular wall around which the sealing ring engages, and wherein the sealing ring , on the one hand, protrudes axially beyond the annular wall and, on the other hand, protrudes beyond the inlet-side front edge of the outlet mouthpiece , wherein the annular wall is integrally formed on the inlet-side front face of the jet splitter and the annular wall engages around a regulator housing of a flow rate regulator, characterized in that the sealing ring has a greater height compared to the thickness, in that the annular wall supports the sealing ring against lateral buckling of the sealing ring in the event of axial compression, in that the jet regulator has a jet regulator housing with which the jet regulator is insertable into the outlet mouthpiece, and which has a housing inlet and a housing outlet and also an inlet-side and an outlet-side housing part , wherein the jet splitter configured as a diffuser or as a perforated plate is insertable into the inlet-side housing part from the direction of the inlet-side front face of the housing.
A cooling device comprising: • a crankcase , • a crank movable in rotation relative to the crankcase , • a piston , • a coupling member rotatably mounted on the crank , the coupling member having a first edge facing the piston and a second edge opposite the first edge , • a deformable element embedded in the coupling member and embedded in the piston , the deformable element being configured to move the piston in translation relative to the crankcase while deforming, when the crank is rotated relative to the crankcase , the cooling device being characterised in that the deformable element is embedded in the second edge of the coupling member , and in that the deformable element comprises: • a first portion extending along the second edge of the member parallel to an axis of rotation of the crank , • a second portion continuing the first portion and extending towards the piston , • a third portion continuing the second portion and extending parallel to the axis of rotation of the crank , so that the three portions form a U overlapping the coupling member . • a crankcase , • a crank movable in rotation relative to the crankcase , • a piston , • a coupling member rotatably mounted on the crank , the coupling member having a first edge facing the piston and a second edge opposite the first edge , • a deformable element embedded in the coupling member and embedded in the piston , the deformable element being configured to move the piston in translation relative to the crankcase while deforming, when the crank is rotated relative to the crankcase , • a first portion extending along the second edge of the member parallel to an axis of rotation of the crank , • a second portion continuing the first portion and extending towards the piston , • a third portion continuing the second portion and extending parallel to the axis of rotation of the crank , so that the three portions form a U overlapping the coupling member .
An inertial/video hybridization device intended to be carried on a carrier , the device comprising: - a first camera configured to acquire a first image showing a predetermined landmark attached to the carrier , - a second camera configured to acquire a second image also showing the landmark - a processing unit configured to estimate a velocity of the carrier from the acquired first image, in order to hybridize the estimated velocity with inertial data relating to the carrier produced by an inertial unit , the processing unit is further configured to : - locate a first position of the landmark in the first acquired image, - locate a second position of the landmark in the second acquired image, - determine a reference position of the landmark by applying to the second position a predetermined transformation representative of a change of reference frame from the second camera to the first camera , - calculate a deviation between the first located position and the reference position of the landmark , - compare the calculated deviation with a predetermined threshold, - signal an alert when the calculated deviation is greater than the predetermined threshold. - a first camera configured to acquire a first image showing a predetermined landmark attached to the carrier , - a second camera configured to acquire a second image also showing the landmark - a processing unit configured to estimate a velocity of the carrier from the acquired first image, in order to hybridize the estimated velocity with inertial data relating to the carrier produced by an inertial unit , - locate a first position of the landmark in the first acquired image, - locate a second position of the landmark in the second acquired image, - determine a reference position of the landmark by applying to the second position a predetermined transformation representative of a change of reference frame from the second camera to the first camera , - calculate a deviation between the first located position and the reference position of the landmark , - compare the calculated deviation with a predetermined threshold, - signal an alert when the calculated deviation is greater than the predetermined threshold.
A method of calculating blood pressure, comprising: performing , by one or more sensors, two or more measurements, wherein at least two measurements from the two or more measurements correspond to different measurement elevations of a subject's limb; determining , by a processor, a blood flow difference based on the two or more measurements, wherein the determining comprises: determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining , by the processor, a hydrostatic pressure difference based on the two or more different measurement elevations of the two or more measurements; and estimating , by the processor, a blood pressure based on one or more values of blood flow, the hydrostatic pressure difference and the blood flow difference. performing , by one or more sensors, two or more measurements, wherein at least two measurements from the two or more measurements correspond to different measurement elevations of a subject's limb; determining , by a processor, a blood flow difference based on the two or more measurements, wherein the determining comprises: determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining, by the processor, values of arterial lumen for each of the measurement elevations; determining, by the processor, a value of blood velocity associated with each of the measurement elevations based, at least in part, on a Doppler shift or a Doppler shift related signal; and determining, by the processor, a first blood flow associated with a first measurement elevation and a second blood flow associated with a second measurement elevation based on the determined values of blood velocity and the determined values of arterial lumen; determining , by the processor, a hydrostatic pressure difference based on the two or more different measurement elevations of the two or more measurements; and estimating , by the processor, a blood pressure based on one or more values of blood flow, the hydrostatic pressure difference and the blood flow difference.
An IC tag including a magnetic field type tag unit in which an IC chip and a coil antenna being electrically connected to the IC chip are embedded inside a hard resin material , the IC tag further comprising: a flexible film made of resin; and an auxiliary antenna formed on the film, wherein the magnetic field type tag unit being fixed at a position that enables communication by electromagnetic coupling between the coil antenna and the auxiliary antenna , characterized in that the magnetic field type tag unit is fixed to the film by an adhesive made of rubber glue with elasticity so as to conform to a deformation of the IC tag , a flexible film made of resin; and an auxiliary antenna formed on the film, wherein the magnetic field type tag unit being fixed at a position that enables communication by electromagnetic coupling between the coil antenna and the auxiliary antenna , characterized in that the magnetic field type tag unit is fixed to the film by an adhesive made of rubber glue with elasticity so as to conform to a deformation of the IC tag ,
An analysis device for determining an oscillation pattern of a substance, comprising - a central unit with two identical sample containers , two microphone apparatuses , a differential amplifier , opaque closing lids , connecting lines and oscillation-damping elements ; - wherein the sample containers are closable by the respective opaque closing lids , wherein the interior of the sample containers is shielded by walls of the sample containers and the closing lids from all sides from optical radiation after closing; - wherein one of the microphone apparatuses is respectively arranged in the respective sample containers ; - wherein the microphone apparatuses are electronically coupled to the differential amplifier via the respective connecting lines , wherein the connecting lines are each identically constructed; - wherein the differential amplifier is formed to compensate for in-phase parasitic oscillations from both sample containers and to determine the oscillation pattern of the substance upon introduction of the substance into only one of the two sample containers ; and - wherein the analysis device does not comprise an excitation source, by which the sample-containers and/or the substance are excitable in one of the two sample-containers ; - wherein the two sample containers are mounted by the oscillation-damping elements , which are formed to absorb and reduce oscillations, - wherein the central unit is formed as a Faraday cage; and - wherein the analysis device comprises a sound-absorbing housing , wherein the central unit is arranged in the sound-absorbing housing . - a central unit with two identical sample containers , two microphone apparatuses , a differential amplifier , opaque closing lids , connecting lines and oscillation-damping elements ; - wherein the sample containers are closable by the respective opaque closing lids , wherein the interior of the sample containers is shielded by walls of the sample containers and the closing lids from all sides from optical radiation after closing; - wherein one of the microphone apparatuses is respectively arranged in the respective sample containers ; - wherein the microphone apparatuses are electronically coupled to the differential amplifier via the respective connecting lines , wherein the connecting lines are each identically constructed; - wherein the differential amplifier is formed to compensate for in-phase parasitic oscillations from both sample containers and to determine the oscillation pattern of the substance upon introduction of the substance into only one of the two sample containers ; and - wherein the analysis device does not comprise an excitation source, by which the sample-containers and/or the substance are excitable in one of the two sample-containers ; - wherein the two sample containers are mounted by the oscillation-damping elements , which are formed to absorb and reduce oscillations, - wherein the central unit is formed as a Faraday cage; and - wherein the analysis device comprises a sound-absorbing housing , wherein the central unit is arranged in the sound-absorbing housing .