mhurhangee/patent-ind-claim-en huggingface dataset:
An inspection device for inspecting metallic objects extending in planar fashion, in particular sheets or walls, the inspection device being embodied as pipeline-impassable in particular by virtue of dispensing with at least one propulsion element that at least substantially fills an inner pipeline cross section, comprising at least one functional unit for recording object information and also comprising at least one magnet unit provided for magnetizing the object and having a plurality of magnets , wherein the magnet unit has a plurality of segments each having at least one magnet and the magnetization directions of segments adjoining one another are angled approximately by 90°, relative to one another.
An apparatus to assist in making an orthotic, insole or other footwear insert that is customized to a plantar surface of an individual's foot (F), the apparatus comprising: a portable housing having a foot receiving area which is inclined with respect to a base of the housing; a heater unit coupled to and disposed within the portable housing to selectively heat the orthotic or a heel cap of the footwear insert to increase the pliability of the orthotic or the heel cap; at least one alignment device coupled to the portable housing to assist in positioning and orientating the individual's foot prior to conforming the orthotic or the heel cap to the plantar surface of the individual's foot; and a vacuum system coupled to and disposed within the portable housing, the vacuum system including a control device to selectively apply a vacuum around the individual's foot to bring the orthotic or the heel cap into conformance with the plantar surface of the individual's foot prior to setting of the orthotic or the heel cap. a portable housing having a foot receiving area which is inclined with respect to a base of the housing; a heater unit coupled to and disposed within the portable housing to selectively heat the orthotic or a heel cap of the footwear insert to increase the pliability of the orthotic or the heel cap; at least one alignment device coupled to the portable housing to assist in positioning and orientating the individual's foot prior to conforming the orthotic or the heel cap to the plantar surface of the individual's foot; and a vacuum system coupled to and disposed within the portable housing, the vacuum system including a control device to selectively apply a vacuum around the individual's foot to bring the orthotic or the heel cap into conformance with the plantar surface of the individual's foot prior to setting of the orthotic or the heel cap.
Nonwoven fabric manufacturing line , which comprises: - a forming device for forming a fibre web on a moving web-forming base , - spunlacing device for reinforcing the web , - at least one first drying device for drying the web , and - a calender for forming patterning in the web , characterized in that the manufacturing line comprises at least one second drying device for drying the calendered web , which second drying device is located after the calender in the direction of travel of the web . - a forming device for forming a fibre web on a moving web-forming base , - spunlacing device for reinforcing the web , - at least one first drying device for drying the web , and - a calender for forming patterning in the web ,
A SiPM sensor chip having a plurality of pixels, consisting of at least one photodiode, at least one quench resistor and a current divider which divides the photocurrent of the photodiodes in two equally large currents, wherein the pixels are arranged in a grid in which each pixel has an xy-position in rows along an x-direction and an y-direction and the SiPM sensor chip contains N rows in the x-direction x n = x 1 ,x 2 , x 3 , ...x N with n = 1, 2, ...N and M rows in the y-direction y m = y 1 , y 2 , y 3 ... y m with m = 1, 2, ...M, wherein x codes for a horizontal direction h and y codes for a vertical direction v, characterized in that the current divider S q,nm and S nm , respectively, opens into networks N s.h,n and N S,v,m which each lead into further current dividers S h,n and S v,m , which have coding resistors R h,A,n and R h,B,n as well as R v.C,m and R v.D.m , respectively, which are linearly coded and which open into the output channels A, B, C, D, wherein the current dividers S q,nm and S nm, the networks N S,h,n and N s,v,m , the current dividers S h,n and S v,m , the coding resistors R h.A,n and R h,B,n as well as R v,C,m and R v,D.m , respectively, and the output channels A, B, C, D are part of the sensor chip and that the networks N S,h,n lead into a summing network O h and/or the networks N s,v.m lead into a summing network O v , in which the signals of the networks N S,h,n and/or N S,v,m are merged via summing resistors R S,h,n and R S,v,m , respectively, and lead into the output channels E and/or F, and that the coding resistor values of the coding resistors R h,A,n and R h,S,n , which code the x-direction and are connected to the output channels A and B, are linearly coded in an ascending and descending manner in the opposite direction and the coding resistor values of the coding resistors R v,C,m and R v,D,m , which code the y-direction and are connected to the output channels C and D, are linearly coded in an ascending and descending manner in the opposite direction.
A line holder assembly comprising: an anchor base including a portion comprising a polymer material that, when in contact with a surface , resists movement of the line holder assembly across the surface; a nest coupled to the anchor base in a position that is adjacent to an edge of a cart or table surface and oriented substantially perpendicular to a plane of the anchor base that is in contact with the cart or table surface; and a line holder unit that is secured to the nest and includes an opening to receive and secure a line of a medical device. an anchor base including a portion comprising a polymer material that, when in contact with a surface , resists movement of the line holder assembly across the surface; a nest coupled to the anchor base in a position that is adjacent to an edge of a cart or table surface and oriented substantially perpendicular to a plane of the anchor base that is in contact with the cart or table surface; and a line holder unit that is secured to the nest and includes an opening to receive and secure a line of a medical device.
High carbon steel wire rod excellent in drawability and the fatigue characteristics after wire drawing which consists of, by mass%, C: 0.5 to 1.2%, Si: 0.15 to 2.5%, Mn: 0.20 to 0.9%, P ≤ 0.025%, S: 0.004 to 0.025%, Al: 0.000005 to 0.002%, Ca: 0.00001 to 0.002%, Mg: 0.00001 to 0.001%, Na: 0.000005 to 0.001%, and F: 0.000005 to 0.001%, has a total oxygen amount of 16 to 30 ppm, and optionally further including REM: 0.000005 to 0.001%, B: 0.0005 to 0.002%, Cr: 0.05 to 1.0%, Ni: 0.05 to 1.0%, Cu: 0.05 to 1.0%, Ti: 0.001 to 0.25%, Nb: 0.001 to 0.25%, V: 0.001 to 0.25%, Mo: 0.05 to 1.0% and/or Co: 0.1 to 2%, and which has a balance of Fe and unavoidable impurities, the high carbon steel wire rod characterized in that the number ratio of inclusions satisfying (%SiO 2 ) = 40 to 95%, (%CaO) = 0.5 to 30%, (%Al 2 O 3 ) = 0.5 to 30%, (%MgO) = 0.5 to 20%, and (%MnO) = 0.5 to 10% and further satisfying (%Na) = 0.2 to 7% and (%F) = 0.17 to 8% (below, referred to as "inclusions covered due to composition") in the oxide-based nonmetallic inclusions of a short axis of 0.5pm or more, a long axis of 1.0μm or more, and a circle equivalent diameter (area converted to diameter) of 1μm or more which are seen in the L direction cross-section of the wire rod (below, referred to as "inclusions covered due to size"), that is, the number of inclusions covered due to composition/number of inclusions covered due to size x 100, is 80% or more: where (%SiO 2 ), (%CaO), (%Al 2 O 2 ), (%MgO), (%MnO), (%Na), and (%F) respectively are the contents of SiO 2 , CaO, Al 2 O 2 , MgO, MnO, Na, and F in the inclusions (mass%). C: 0.5 to 1.2%, Si: 0.15 to 2.5%, Mn: 0.20 to 0.9%, P ≤ 0.025%, S: 0.004 to 0.025%, Al: 0.000005 to 0.002%, Ca: 0.00001 to 0.002%, Mg: 0.00001 to 0.001%, Na: 0.000005 to 0.001%, and F: 0.000005 to 0.001%, REM: 0.000005 to 0.001%, B: 0.0005 to 0.002%, Cr: 0.05 to 1.0%, Ni: 0.05 to 1.0%, Cu: 0.05 to 1.0%, Ti: 0.001 to 0.25%, Nb: 0.001 to 0.25%, V: 0.001 to 0.25%, Mo: 0.05 to 1.0% and/or Co: 0.1 to 2%,
Building, fitted with an installation (1; 1000) for production of hot water for the building, the installation comprising: - a device for extraction (2; 102; 202; 302) of a first airflow (F1) coming from the interior of the building, towards the exterior of the latter, - a first exchanger making possible a heat exchange between the first airflow and a heat transfer fluid, - a heat pump comprising a first exchange battery and a second exchange battery , the heat pump being designed to implement a heat transfer from the second battery to the first battery, the latter being designed to transfer its heat to the water of a water network (R1) of the building, this water being water which is intended to supply a machine, for sanitary use, and/or for the purpose of heating the building, the second battery being designed to receive the heat of the heat transfer fluid, the installation (1; 1000) comprising, furthermore: - a storage tank of the heat transfer fluid, - a first circuit (C1) of heat transfer fluid connecting the first exchanger to the storage tank and including a first circulator of heat transfer fluid within the first circuit (C1), and - a second circuit (C2) of heat transfer fluid connecting the second battery to the storage tank and including a second circulator of heat transfer fluid within the second circuit, and the storage tank includes in the centre thereof a second heat exchanger between the heat transfer fluid of the storage tank and the water of the water network (R1), in order that the water of the water network is heated by heat exchange with the heat transfer fluid stored in the storage tank, and the second exchanger is connected, on the one hand, to a conduit for the arrival of water from the water network (R1) and, on the other hand, to a conduit for supply of water to the sanitary water heating means of the building. - a device for extraction (2; 102; 202; 302) of a first airflow (F1) coming from the interior of the building, towards the exterior of the latter, - a first exchanger making possible a heat exchange between the first airflow and a heat transfer fluid, - a heat pump comprising a first exchange battery and a second exchange battery , the heat pump being designed to implement a heat transfer from the second battery to the first battery, the latter being designed to transfer its heat to the water of a water network (R1) of the building, this water being water which is intended to supply a machine, for sanitary use, and/or for the purpose of heating the building, the second battery being designed to receive the heat of the heat transfer fluid, - a storage tank of the heat transfer fluid, - a first circuit (C1) of heat transfer fluid connecting the first exchanger to the storage tank and including a first circulator of heat transfer fluid within the first circuit (C1), and - a second circuit (C2) of heat transfer fluid connecting the second battery to the storage tank and including a second circulator of heat transfer fluid within the second circuit,
A method for customizing a control element of a motor vehicle characterized in that the method comprises the steps of: - selecting by a user a series of preferential functions from a library of functions of controlling a vehicle: - associating each preferential function with respectively one location of a touch layer disposed in a docking area , said location of the touch layer being configured to control said preferential function; - carrying out a removable panel with a series of visual symbols, each of the visual symbols corresponding to a preferential function defined by the user, - positioning the panel opposite the touch layer . - selecting by a user a series of preferential functions from a library of functions of controlling a vehicle: - associating each preferential function with respectively one location of a touch layer disposed in a docking area , said location of the touch layer being configured to control said preferential function; - carrying out a removable panel with a series of visual symbols, each of the visual symbols corresponding to a preferential function defined by the user, - positioning the panel opposite the touch layer .
Cardiac support system for insertion through a catheter into a blood vessel, comprising an axial pump , which has a tubular pump housing having an lateral surface, and which has a pump rotor that extends in the pump housing , is rotatable about a rotational axis and has a hub and a blade element wound at least partially helically around the hub for axially drawing blood into the pump housing in a direction pointing towards the hub , the pump housing having an inlet opening through which the axis of rotation passes and having at least one peripheral outlet opening for the lateral discharge of the blood drawn into the pump housing, characterized in that the at least one blade element has a profile having skeleton lines , the curvature of which increases when unrolled into a plane in the direction of the rotational axis starting from the inlet opening up to an inflection point in which a blade angle (β) of the blade element is at a maximum, and the curvature of which decreases after the inflection point , in the region of the pump rotor lying radially on the outside in relation to the rotational axis , in which for a blade height SH of the at least one blade element , based on its maximum blade height SHMAX, the following applies: 25% ≤ SH / SHMAX ≤ 100%, the inflection points of the skeleton lines lying in the region of an edge of the outlet opening pointing to the inlet opening. comprising an axial pump , which has a tubular pump housing having an lateral surface, and which has a pump rotor that extends in the pump housing , is rotatable about a rotational axis and has a hub and a blade element wound at least partially helically around the hub for axially drawing blood into the pump housing in a direction pointing towards the hub , the pump housing having an inlet opening through which the axis of rotation passes and having at least one peripheral outlet opening for the lateral discharge of the blood drawn into the pump housing, characterized in that the at least one blade element has a profile having skeleton lines , the curvature of which increases when unrolled into a plane in the direction of the rotational axis starting from the inlet opening up to an inflection point in which a blade angle (β) of the blade element is at a maximum, and the curvature of which decreases after the inflection point , in the region of the pump rotor lying radially on the outside in relation to the rotational axis , in which for a blade height SH of the at least one blade element , based on its maximum blade height SHMAX, the following applies: 25% ≤ SH / SHMAX ≤ 100%, the inflection points of the skeleton lines lying in the region of an edge of the outlet opening pointing to the inlet opening.
Beam shutter for a laser beam comprising - a base body on which a first magnetic field sensor is arranged, and - a holding arm which can be moved relative to the base body into a release position and into a closing position, on which are arranged a reflecting optics for deflecting the laser beam and a permanent magnet , which generates a magnetic field whose strength decreases when the permanent magnet is heated above a first limit temperature, wherein in the closing position of the holding arm the permanent magnet is arranged closer to the first magnetic field sensor than in the release position of the holding arm , and wherein the beam shutter comprises a control unit which is adapted to switch off a laser light source when the magnetic field measured by the first magnetic field sensor decreases, wherein a predetermined threshold value regarding the strength and/or the gradient of the magnetic field is passed. - a base body on which a first magnetic field sensor is arranged, and - a holding arm which can be moved relative to the base body into a release position and into a closing position, on which are arranged a reflecting optics for deflecting the laser beam and a permanent magnet , which generates a magnetic field whose strength decreases when the permanent magnet is heated above a first limit temperature, wherein in the closing position of the holding arm the permanent magnet is arranged closer to the first magnetic field sensor than in the release position of the holding arm , and wherein the beam shutter comprises a control unit which is adapted to switch off a laser light source when the magnetic field measured by the first magnetic field sensor decreases, wherein a predetermined threshold value regarding the strength and/or the gradient of the magnetic field is passed. wherein in the closing position of the holding arm the permanent magnet is arranged closer to the first magnetic field sensor than in the release position of the holding arm , and wherein the beam shutter comprises a control unit which is adapted to switch off a laser light source when the magnetic field measured by the first magnetic field sensor decreases, wherein a predetermined threshold value regarding the strength and/or the gradient of the magnetic field is passed.
Method for determination of the growth rate of biofilm using an electrical impedance analysis, - storing a fluid culture medium in at least one receptacle , - bringing the fluid culture medium stored in the at least one receptacle in contact with an electrode structure , - measuring the impedance of the electrode structure over a monitoring time, characterized by - having biofilm grown within the fluid culture medium and having the biofilm floating on top of the fluid culture medium , such that the biofilm does not adhere to the electrode structure and is arranged in distance to the electrode structure , so that the fluid culture medium is placed between the growing biofilm and the electrode structure , and - determining the growth rate of the biofilm after expiration of a specific growth time of the biofilm , said specific growth time being expired at the earliest when a continuous reduction of the impedance values measured on the electrode structure occurs, wherein the growth rate of the biofilm is determined as a function of the reduction rate of the impedance values measured on the electrode structure . - storing a fluid culture medium in at least one receptacle , - bringing the fluid culture medium stored in the at least one receptacle in contact with an electrode structure , - measuring the impedance of the electrode structure over a monitoring time, - having biofilm grown within the fluid culture medium and having the biofilm floating on top of the fluid culture medium , such that the biofilm does not adhere to the electrode structure and is arranged in distance to the electrode structure , so that the fluid culture medium is placed between the growing biofilm and the electrode structure , and - determining the growth rate of the biofilm after expiration of a specific growth time of the biofilm , said specific growth time being expired at the earliest when a continuous reduction of the impedance values measured on the electrode structure occurs, wherein the growth rate of the biofilm is determined as a function of the reduction rate of the impedance values measured on the electrode structure .
A composition comprising a therapeutically effective amount of acid oligosaccharide and neutral oligosaccharide, for use in stimulation of the immune system of cancer patients, in particular cancer patients that are or have been subjected to chemotherapy, radiation and cancer patients that are cachectic, wherein the acid oligosaccharide comprises at least one terminal uronic acid unit and wherein the uronic acid unit is selected from the group consisting of galacturonic acid, glucuronic acid, guluronic acid, iduronic acid, mannuronic acid, riburonic acid and alturonic acid and wherein the acid oligosaccharide has a degree of polymerisation between 1 and 10 and wherein the neutral oligosaccharide has a degree of polymerisation of monose units exceeding 2 and is below 60 monose unites and wherein the neutral oligosaccharide is selected from the group consisting of galactooligosaccharide, fructooligosaccharide and transgalactooligosaccharide.
Dental prosthetic arrangement, comprising a lower part (UT) for insertion into a structural element (AB) which is assigned to a means for fastening in a jaw, and an upper part (OT) which can be connected to a dental prosthetic restoration, wherein a retention element (RE) is arranged between the upper part (OT) and the lower part (UT) such that the upper part (OT) can be releasably connected to the lower part (UT) along a longitudinal axis (LA), wherein the upper part (OT) can be tilted about the longitudinal axis (LA) in relation to the lower part (UT) in order to interrupt the force between the structural element (AB) and the dental prosthetic restoration, and wherein, during a tilting movement (VK), the upper part (OT) slides over a fastening element (BE) formed in the lower part (UT).
A method for delivering a static route, wherein the method comprises: reading (S402), by an ultimate provider edge, UPE, an interface address and a service address allocated to a base station from a Dynamic Host Configuration Protocol, DHCP, relay agent packet; and delivering (S403) to the service address of the base station a corresponding static route according to, the interface address and the service address, characterized in that a destination internet protocol, IP, address in the static route is equal to the service address of the base station and a next hop in the static route is equal to the interface address of the base station. reading (S402), by an ultimate provider edge, UPE, an interface address and a service address allocated to a base station from a Dynamic Host Configuration Protocol, DHCP, relay agent packet; and delivering (S403) to the service address of the base station a corresponding static route according to, the interface address and the service address, characterized in that a destination internet protocol, IP, address in the static route is equal to the service address of the base station and a next hop in the static route is equal to the interface address of the base station.