mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a timepiece component , the method comprising the steps of: - manufacturing (S1) of a master for the timepiece component; - manufacturing (S2) of a polymer mould based on the master piece ; - filling (S4) the mould with a metallic material such as to build up the timepiece component with the material; and - separating (S6) the timepiece component from the mould ; wherein, during the step of manufacturing (S2) the mould , a fluid resin is applied onto the master , and characterised in that during the step of manufacturing (S2) the mould , the master is placed on a fixed support , and after the fluid resin has been applied on to the master , the resin is pressed onto the master by means of a press . - manufacturing (S1) of a master for the timepiece component; - manufacturing (S2) of a polymer mould based on the master piece ; - filling (S4) the mould with a metallic material such as to build up the timepiece component with the material; and - separating (S6) the timepiece component from the mould ;
Seal for use in a fluid valve , comprising: a first, elastically deformable plastics part , and a second plastics part which is configured as a hard seal element and which is connected to the first plastics part , wherein the first and the second plastics part form a seal assembly having a first frontal end (SEI) for bearing in a sealing manner on an actuatable valve body of the fluid valve , and a second frontal end (SEII) for bearing in a sealing manner on a valve housing of the fluid valve , wherein at least the first frontal end (SEI) has a first end side (SI) having an encircling projecting bead for sealing against the actuatable valve body , wherein at least one clearance that fluidically increases the force is molded on the inside of the first plastics part in relation to a seal opening , and wherein the clearance is delimited by two mutually opposite lip-type, elastically deformable portions that fluidically increase the force, said portions forming an entry opening for a fluid, characterized in that one portion is proximal to the valve body and the other portion is proximal to the valve housing.
A screw compression apparatus comprises: a screw compressor in which a rotor shaft of a screw rotor that is rotatably housed to compress a target gas together with a rotor lubricating fluid in a male/female interlocking arrangement in a rotor chamber formed in a housing is held by a bearing arranged in a bearing space formed in the housing adjacently to the rotor chamber , and which includes a shaft sealing member that isolates the bearing space from the rotor chamber ; a lubricating fluid separating collector which separates the rotor lubricating fluid from the target gas discharged from the screw compressor ; a rotor lubricating fluid feeding means which introduces the rotor lubricating fluid separated by the lubricating fluid separating collector into the rotor chamber ; and a bearing lubricating system which supplies a bearing lubricating fluid to the bearing space , and returns into the bearing space the bearing lubricating fluid discharged from the bearing space , wherein the rotor lubricating fluid and the bearing lubricating fluid are fluids isolated from each other and circulated in different systems independently, and the shaft sealing member is configured to connect the rotor chamber and bearing space to each other through a plurality of narrow gaps, characterized in that a part of the target gas from which the rotor lubricating fluid is separated in the lubricating fluid separating collector is supplied into midstream in the shaft sealing member . a screw compressor in which a rotor shaft of a screw rotor that is rotatably housed to compress a target gas together with a rotor lubricating fluid in a male/female interlocking arrangement in a rotor chamber formed in a housing is held by a bearing arranged in a bearing space formed in the housing adjacently to the rotor chamber , and which includes a shaft sealing member that isolates the bearing space from the rotor chamber ; a lubricating fluid separating collector which separates the rotor lubricating fluid from the target gas discharged from the screw compressor ; a rotor lubricating fluid feeding means which introduces the rotor lubricating fluid separated by the lubricating fluid separating collector into the rotor chamber ; and a bearing lubricating system which supplies a bearing lubricating fluid to the bearing space , and returns into the bearing space the bearing lubricating fluid discharged from the bearing space , wherein the rotor lubricating fluid and the bearing lubricating fluid are fluids isolated from each other and circulated in different systems independently, and the shaft sealing member is configured to connect the rotor chamber and bearing space to each other through a plurality of narrow gaps, characterized in that a part of the target gas from which the rotor lubricating fluid is separated in the lubricating fluid separating collector is supplied into midstream in the shaft sealing member .
A method for producing electrolytic aluminum foil, comprising steps of: depositing an aluminum film on a surface of a cathode in an electrolytic cell supplied with an electrolytic solution and comprising the cathode; and peeling the deposited aluminum film from the surface of the cathode to provide aluminum foil, wherein the cathode has surface roughness of an arithmetic average roughness (Ra) of 0.10 to 0.40 μm and a ten-point average roughness (Rz) of 0.20 to 0.70 μm. depositing an aluminum film on a surface of a cathode in an electrolytic cell supplied with an electrolytic solution and comprising the cathode; and peeling the deposited aluminum film from the surface of the cathode to provide aluminum foil, wherein the cathode has surface roughness of an arithmetic average roughness (Ra) of 0.10 to 0.40 μm and a ten-point average roughness (Rz) of 0.20 to 0.70 μm.
An ultrasound system for imaging a volumetric region comprising a region of interest comprising: - an array of CMUT transducers adapted to transmit ultrasound beams and receive returning echo signals over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam transmission and provide ultrasound image data of the volumetric region; - a transducer controller coupled to the beamformer and adapted to vary driving pulse characteristics of the CMUT transducers, - a region of interest identifier enabling an identification of the region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a beam path analyzer responsive to the identification data and coupled to the beamformer, said beam path analyzer arranged to detect an attenuating tissue type in between the array and the ROI based on a depth variation in attenuation of the received signal; wherein the transducer controller is further adapted to adjust, based on the attenuating tissue type detection, at least one parameter of the driving pulse characteristics. - an array of CMUT transducers adapted to transmit ultrasound beams and receive returning echo signals over the volumetric region; - a beamformer coupled to the array and adapted to control ultrasound beam transmission and provide ultrasound image data of the volumetric region; - a transducer controller coupled to the beamformer and adapted to vary driving pulse characteristics of the CMUT transducers, - a region of interest identifier enabling an identification of the region of interest on the basis of the ultrasound image data, and which identifier is adapted to generate identification data indicating the region of interest within the volumetric region; - a beam path analyzer responsive to the identification data and coupled to the beamformer, said beam path analyzer arranged to detect an attenuating tissue type in between the array and the ROI based on a depth variation in attenuation of the received signal;
An adjustable seat for sports cars, the seat comprising a lower seat portion with two opposite longitudinal sides, each of which is provided with - a front mechanism for connecting a front portion of the lower seat portion to a front supporting bracket , and - a rear lever hinged to a rear portion of the lower seat portion about a first horizontal hinging axis (a1), the rear lever being hinged also to a respective rear supporting bracket about a second horizontal hinging axis (a2); wherein each front mechanism comprises a front lever hinged to the front supporting bracket and the lower seat portion , whereby on each longitudinal side of the seat a corresponding articulated quadrilateral is formed, consisting of the front and rear levers, the lower seat portion and front and rear supporting brackets , the articulated quadrilateral allowing to move a point (H) of the seat between two opposite positions: a first, more advanced and lower position (H'), and a second, more retracted and higher position (H"); characterized in that in use, the first horizontal hinging axis (a1) between the rear lever and the lower seat portion is located at a lower position than the second horizontal hinging axis (a2) between the rear lever and the rear supporting bracket , whereby each rear lever is subjected to tensile stress, and that the rear lever is oriented rearwardly and downwardly. - a front mechanism for connecting a front portion of the lower seat portion to a front supporting bracket , and - a rear lever hinged to a rear portion of the lower seat portion about a first horizontal hinging axis (a1), the rear lever being hinged also to a respective rear supporting bracket about a second horizontal hinging axis (a2); in use, the first horizontal hinging axis (a1) between the rear lever and the lower seat portion is located at a lower position than the second horizontal hinging axis (a2) between the rear lever and the rear supporting bracket , whereby each rear lever is subjected to tensile stress, and that the rear lever is oriented rearwardly and downwardly.
Method for operating an x-ray device for recording a series of images for in particular fluoroscopic monitoring of a recording region of a patient , wherein fluoroscopy images are acquired with a recording rate and a recording dose and are displayed to a user on a display device with a frame rate, wherein the recording dose is selected automatically per fluoroscopy image as a function of a change in image contents between the current consecutive fluoroscopy images, wherein a comparison measure between the two most up to date fluoroscopy images is selected as a measure of the change in image contents, and wherein with a reduction in the recording dose a display image, which corresponds to a maximally usable base dose , is determined from in each case a number of fluoroscopy images recorded consecutively and output to the display device .
An optoelectronic device system having a first optoelectronic device comprising: - a support ; - a conducting layer arranged on the support ; - an active layer connected to the conducting layer ; - an encapsulation capping , covering the active layer being attached by an attachment member to the support , - a layer gap formed between the support and a protrusion of the encapsulation capping , wherein the layer gap has a lateral opening opposite to the attachment member and wherein the conducting layer reaches into the layer gap ; - an elastic electrode arranged in the layer gap and contacting the conducting layer , wherein - the protrusion of the encapsulation capping projects over the attaching member , - the elastic electrode comprises an elastomer, - the elastic electrode is arranged in the layer gap between the support and the protrusion of the encapsulation capping, characterized in that - the elastic electrode protrudes from the layer gap covering sidewalls of the conductive layer and at least partly covering sidewalls of the support and the encapsulation capping , the optoelectronic device system further comprises - a second optoelectronic device comprising a second elastic electrode , wherein - the elastic electrode and the second elastic electrode are in direct physical contact. - a support ; - a conducting layer arranged on the support ; - an active layer connected to the conducting layer ; - an encapsulation capping , covering the active layer being attached by an attachment member to the support , - a layer gap formed between the support and a protrusion of the encapsulation capping , wherein the layer gap has a lateral opening opposite to the attachment member and wherein the conducting layer reaches into the layer gap ; - an elastic electrode arranged in the layer gap and contacting the conducting layer , wherein - the protrusion of the encapsulation capping projects over the attaching member , - the elastic electrode comprises an elastomer, - the elastic electrode is arranged in the layer gap between the support and the protrusion of the encapsulation capping, characterized in that - the elastic electrode protrudes from the layer gap covering sidewalls of the conductive layer and at least partly covering sidewalls of the support and the encapsulation capping , the optoelectronic device system further comprises - a second optoelectronic device comprising a second elastic electrode , wherein - the elastic electrode and the second elastic electrode are in direct physical contact.
Device for carrying out heterogeneous immunoassays by means of magnetic particles in lined-up cuvettes , wherein each cuvette has a filling opening and at least one lateral measurement window which is transparent to the measurement radiation, characterised by at least one stationary cuvette array , in which the cuvettes for receiving liquid media are arranged, at least one support arm which is movable along the cuvette array and which is lowerable toward the filling opening of a selected cuvette , said support arm having at least one aspirating needle which is lowerable toward the bottom of the cuvette , and also having at least one dispenser (424a to 424d), which can be positioned above or in the respective filling opening , for dispensing the liquid media into the cuvette , wherein at least one dispenser is designed to dispense a washing solution for the magnetic particles , at least one magnet assembly for separating the magnetic particles on an inner surface of the cuvette , said magnet assembly being movable along the cuvette array and acting on the contents of the selected cuvette , and at least one optical detection device for receiving a measurement signal that correlates with an analyte concentration in the selected cuvette , said optical detection device being movable along the cuvette array and being alignable with the measurement window of the selected cuvette . characterised by at least one stationary cuvette array , in which the cuvettes for receiving liquid media are arranged, at least one support arm which is movable along the cuvette array and which is lowerable toward the filling opening of a selected cuvette , said support arm having at least one aspirating needle which is lowerable toward the bottom of the cuvette , and also having at least one dispenser (424a to 424d), which can be positioned above or in the respective filling opening , for dispensing the liquid media into the cuvette , wherein at least one dispenser is designed to dispense a washing solution for the magnetic particles , at least one magnet assembly for separating the magnetic particles on an inner surface of the cuvette , said magnet assembly being movable along the cuvette array and acting on the contents of the selected cuvette , and at least one optical detection device for receiving a measurement signal that correlates with an analyte concentration in the selected cuvette , said optical detection device being movable along the cuvette array and being alignable with the measurement window of the selected cuvette .
Flexible fluid transportation pipeline , characterized in that it comprises a system for detecting changing of an environmental parameter , comprising: - at least one detection module including an LC resonant circuit sensitive to a change of said environmental parameter, configured to operate, as a function of the value of said environmental parameter, either in a first mode in which said resonant circuit exhibits a resonance frequency lying within a predefined range for which the detection module can be detected by magnetic coupling by excitation in said range, or in a second mode in which said resonant circuit exhibits a resonance frequency outside of said range or an absence of resonance frequency; - a declaration module disposed in proximity to said detection module , configured to communicate contactlessly in near-field mode even in the case of variation of the value of said environmental parameter, and configured to declare the presence of the detection module; characterized in that the LC resonant circuit of the detection module comprises an electrical element in contact with a surrounding fluid and likely to have its electrical properties modified as a function of the value of the environmental parameter in the fluid with which it is in contact. - at least one detection module including an LC resonant circuit sensitive to a change of said environmental parameter, configured to operate, as a function of the value of said environmental parameter, either in a first mode in which said resonant circuit exhibits a resonance frequency lying within a predefined range for which the detection module can be detected by magnetic coupling by excitation in said range, or in a second mode in which said resonant circuit exhibits a resonance frequency outside of said range or an absence of resonance frequency; - a declaration module disposed in proximity to said detection module , configured to communicate contactlessly in near-field mode even in the case of variation of the value of said environmental parameter, and configured to declare the presence of the detection module;
A method of manufacturing a semiconductor device having one or more trenches with an insulation layer , wherein the one or more trenches with an insulation layer are manufactured using the steps of: i) performing an etching process to form the one or more trenches, whereby the trenches are formed in an upper surface of a substrate extending downwards in the substrate from its upper surface; ii) forming a first insulation layer on the upper surface of the substrate and a lower surface and sidewalls of the one or more trenches; iii) depositing a hydrophilic layer over the first insulation layer, wherein the hydrophilic layer comprises nitride and the hydrophilic layer has a thickness between 100nm and 250nm iv) depositing a photoresist material in the one or more trenches, wherein depositing a photoresist material comprises exposing the hydrophilic layer on an upper region of a first side of the one or more trenches, leaving the hydrophilic layer not in the upper region covered with the deposited photoresist material; v) performing a capillary wet etch process to etch the insulation layer on the sidewall of the first side of the one or more trenches to a predetermined distance below a surface of the photoresist material; vi) removing the photoresist material; vii) removing the hydrophilic layer; and after performing the wet etch process, removing the photoresist material, and removing the hydrophilic layer; viii) forming a second insulation layer on the sidewall of the first side of the one or more trenches. i) performing an etching process to form the one or more trenches, whereby the trenches are formed in an upper surface of a substrate extending downwards in the substrate from its upper surface; ii) forming a first insulation layer on the upper surface of the substrate and a lower surface and sidewalls of the one or more trenches; iii) depositing a hydrophilic layer over the first insulation layer, wherein the hydrophilic layer comprises nitride and the hydrophilic layer has a thickness between 100nm and 250nm iv) depositing a photoresist material in the one or more trenches, wherein depositing a photoresist material comprises exposing the hydrophilic layer on an upper region of a first side of the one or more trenches, leaving the hydrophilic layer not in the upper region covered with the deposited photoresist material; v) performing a capillary wet etch process to etch the insulation layer on the sidewall of the first side of the one or more trenches to a predetermined distance below a surface of the photoresist material; vi) removing the photoresist material; vii) removing the hydrophilic layer; and
A method for producing a glucose-rich sugar stream from activated cellulose, the method comprising subjecting activated cellulose to enzymatic hydrolysis with one or more cellulase enzymes, a surfactant and polyaspartic acid to produce the glucose-rich sugar stream, wherein the surfactant is a non-ionic surfactant, wherein the polyaspartic acid has a molecular weight between 1000 and 5000, and wherein the ratio of surfactant to polyaspartic acid is from 0.5: 1 to 2:1. wherein the surfactant is a non-ionic surfactant, wherein the polyaspartic acid has a molecular weight between 1000 and 5000, and wherein the ratio of surfactant to polyaspartic acid is from 0.5: 1 to 2:1.
A light aircraft comprising a fuselage, with a jet engine mounted on the fuselage, and a parachute rescue system comprising a parachute arranged in the fuselage in a container with a lid , wherein the container with the parachute is arranged in the fuselage upstream of an inlet of air into the jet engine and is provided at the top with an openable lid constituting part of the plating of the outer fuselage, and a mechanism for opening the lid being arranged inside the fuselage, characterised in that the parachute rescue system comprises a dragging rocket for the parachute connected to the parachute , wherein a fuse of the rocket is connected by a tension member to a handle mounted inside the fuselage, wherein the lid is rotatably mounted at its rear edge to the container , and wherein the dragging rocket for the parachute is mounted on an inner side of the lid , inside the fuselage in the closed position of the lid .