mhurhangee/ep-ind-claims huggingface dataset:
A component having an integrated sensor device for an optical, multi-axis measurement of a force effect on the component, the component comprising a cavity; a first support element having one or more first optical elements and a second support element having one or more second optical elements, the first support element and the second support element being formed in the cavity and partially inserted into the component; and a transmission device which is designed to be connected to an energy source and to transmit, when connected to the energy source, at least two beams (331, 332) in mutually independent directions, the beams (331, 332) each extending between the first optical elements and the second optical elements through the cavity, the first optical elements and the second optical elements being designed to generate, on the basis of the at least two beams (331, 332), information about a relative position change of the first support element with respect to the second support element, and the transmission device being designed to provide the information for measuring the force effect, the second optical elements having a mirror, characterized in that the at least two beams (331, 332) have a reflected beam and a non-reflected beam. a cavity; a first support element having one or more first optical elements and a second support element having one or more second optical elements, the first support element and the second support element being formed in the cavity and partially inserted into the component; and a transmission device which is designed to be connected to an energy source and to transmit, when connected to the energy source, at least two beams (331, 332) in mutually independent directions, the beams (331, 332) each extending between the first optical elements and the second optical elements through the cavity, the first optical elements and the second optical elements being designed to generate, on the basis of the at least two beams (331, 332), information about a relative position change of the first support element with respect to the second support element, and the transmission device being designed to provide the information for measuring the force effect, the second optical elements having a mirror, characterized in that the at least two beams (331, 332) have a reflected beam and a non-reflected beam.
A covering device comprising a first cover that has a plurality of first slats connected to each other in an articulated manner and a second cover that has a plurality of second slats connected to each other in an articulated manner, each of said covers (11, 12) being adjustable between a rest position and a covering position, wherein the end faces (13a, 14a) of the slats (13, 14) of said covers (11, 12) face each other in the covering position, characterized in that at least one of the first slats comprises a first engagement part at its end face facing the second slats, in that at least one of the second slats comprises a second engagement part at its end face facing the first slats, and in that the first engagement part is able to be brought into engagement with the second engagement part in such a manner that the first cover is connected to the second cover.
Core/shell type semiconductor nanoparticles, comprising: a core comprising In and P; and a shell having one or more layers, wherein the semiconductor nanoparticles further comprise at least Zn, Se, and halogen, and in the semiconductor nanoparticles, molar ratios of P, Zn, Se, and halogen each relative to In in terms of atoms are P: 0.20 ~ 0.95, Zn: 11.00 ~ 50.00, Se: 7.00 ~ 25.00, and halogen: 0.80 ~ 15.00. a core comprising In and P; and a shell having one or more layers, wherein the semiconductor nanoparticles further comprise at least Zn, Se, and halogen, and in the semiconductor nanoparticles, molar ratios of P, Zn, Se, and halogen each relative to In in terms of atoms are P: 0.20 ~ 0.95, Zn: 11.00 ~ 50.00, Se: 7.00 ~ 25.00, and halogen: 0.80 ~ 15.00.
A corrosion protection anode for being adhered to a surface layer on an object to be protected from corrosion and being connected to an external power supply, comprising: a conductive layer formed of a graphite sheet; a reinforcing layer formed of a fiber base material; an adhesive layer; and an electrolyte layer of an electrolyte-containing resin formed in a sheet shape and having adhesive power such that the layer is capable of being adhered to the conductive layer and to the surface layer, wherein the reinforcing layer is laminated with the adhesive layer on one surface of the conductive layer, the electrolyte layer is adhered by the adhesive power thereof to the other surface of the conductive layer, and the conductive layer always has a resistance value of 4 Ω or less between any two points on the surface thereof on a side that comes into contact with the electrolyte layer, characterized in that the reinforcing layer has a wider width than the conductive layer and is laminated on the conductive layer leaving margins at both sides of the reinforcing layer. a conductive layer formed of a graphite sheet; a reinforcing layer formed of a fiber base material; an adhesive layer; and an electrolyte layer of an electrolyte-containing resin formed in a sheet shape and having adhesive power such that the layer is capable of being adhered to the conductive layer and to the surface layer, wherein the reinforcing layer is laminated with the adhesive layer on one surface of the conductive layer, the electrolyte layer is adhered by the adhesive power thereof to the other surface of the conductive layer, and the conductive layer always has a resistance value of 4 Ω or less between any two points on the surface thereof on a side that comes into contact with the electrolyte layer, characterized in that the reinforcing layer has a wider width than the conductive layer and is laminated on the conductive layer leaving margins at both sides of the reinforcing layer.
A self-moving device comprising a housing, a moving module mounted on the housing and drivable to cause the device to move, a working module mounted on the housing configured to perform a work task, a plurality of cavities (31, 32, 33, 34, 35) for receiving respective removable modules (11, 13, 15, 17) wherein the removable modules include sensing modules, a control module, and a communication system connecting the control module to the moving module, the working module and to the removable modules when mounted on the housing; wherein the control module is configured to detect a removable module and to modify a control program according to the detected type of the removable module, so that the self-mobile device can perform a function corresponding to the removable module; characterized in that the plurality of cavities comprise a primary cavity configured to mount the control module and a secondary cavity isolated from the primary cavity. a housing, a moving module mounted on the housing and drivable to cause the device to move, a working module mounted on the housing configured to perform a work task, a plurality of cavities (31, 32, 33, 34, 35) for receiving respective removable modules (11, 13, 15, 17) wherein the removable modules include sensing modules, a control module, and a communication system connecting the control module to the moving module, the working module and to the removable modules when mounted on the housing; wherein the control module is configured to detect a removable module and to modify a control program according to the detected type of the removable module, so that the self-mobile device can perform a function corresponding to the removable module; characterized in that the plurality of cavities comprise a primary cavity configured to mount the control module and a secondary cavity isolated from the primary cavity.
A method for supporting device to device, D2D, communication in a wireless access system that supports D2D communication and cellular communication the method performed by a first D2D device and comprising: receiving, from a base station, a broadcast message which includes a common D2D identifier, C-D2D-RNTI, for all D2D devices that perform D2D communication; receiving, from the base station, a first D2D related information broadcasted within a cell by using the C-D2D-RNTI; receiving, from the base station, a second D2D related information by using a specific D2D identifier, S-D2D-RNTI, wherein the S-D2D-RNTI is generated by the first device using functions of the C-D2D-RNTI and a user equipment specific identifier of the first D2D device; wherein the first D2D related information comprises resource allocation information or a reference signal for a peer discovery process, and wherein the second D2D related information comprises resource allocation information indicating a resource region allocated to the first D2D device for D2D direct communication. receiving, from a base station, a broadcast message which includes a common D2D identifier, C-D2D-RNTI, for all D2D devices that perform D2D communication; receiving, from the base station, a first D2D related information broadcasted within a cell by using the C-D2D-RNTI; receiving, from the base station, a second D2D related information by using a specific D2D identifier, S-D2D-RNTI, wherein the S-D2D-RNTI is generated by the first device using functions of the C-D2D-RNTI and a user equipment specific identifier of the first D2D device; wherein the first D2D related information comprises resource allocation information or a reference signal for a peer discovery process, and wherein the second D2D related information comprises resource allocation information indicating a resource region allocated to the first D2D device for D2D direct communication.
A Foley type catheter for sensing physiologic data from a urinary tract of a patient comprising: a pressure sensor comprising an expandable balloon which forms a pressure interface and which is disposed at a distal end of the catheter, a pressure transducer at a proximal end of the catheter, and a fluid column disposed between the pressure interface and the pressure transducer; and a retention balloon positioned along the catheter proximal to the expandable balloon; wherein, when the catheter is inserted into the urinary tract and the distal end is residing in the bladder, the pressure transducer can transduce pressure impinging on it from the pressure interface into a chronological pressure profile, the pressure profile having sufficient resolution to be processed into one or more distinct physiologic pressure profiles, said physiologic pressure profiles selected from a group consisting of peritoneal pressure, respiratory rate, and cardiac rate. a pressure sensor comprising an expandable balloon which forms a pressure interface and which is disposed at a distal end of the catheter, a pressure transducer at a proximal end of the catheter, and a fluid column disposed between the pressure interface and the pressure transducer; and a retention balloon positioned along the catheter proximal to the expandable balloon; wherein, when the catheter is inserted into the urinary tract and the distal end is residing in the bladder, the pressure transducer can transduce pressure impinging on it from the pressure interface into a chronological pressure profile, the pressure profile having sufficient resolution to be processed into one or more distinct physiologic pressure profiles, said physiologic pressure profiles selected from a group consisting of peritoneal pressure, respiratory rate, and cardiac rate.
Method for treating calcium sulphate containing rare earths comprising the steps of: - a sulphuric-acid leaching of calcium sulphate dihydrate containing said rare earths with the obtaining of a suspension formed from a solid phase containing said calcium sulphate dihydrate and from a liquid phase containing said rare earths in solution, - a separation between said solid phase formed from said calcium sulphate dihydrate and from said liquid phase in the form of a liqueur containing said rare earths and sulphuric acid, characterised in that said method further comprises, prior to said lixiviation, a step of maturing of calcium sulphate hemihydrate containing said rare earths with a crystallisation in calcium sulphate dihydrate by capturing of residual water and/or residual moisture. - a sulphuric-acid leaching of calcium sulphate dihydrate containing said rare earths with the obtaining of a suspension formed from a solid phase containing said calcium sulphate dihydrate and from a liquid phase containing said rare earths in solution, - a separation between said solid phase formed from said calcium sulphate dihydrate and from said liquid phase in the form of a liqueur containing said rare earths and sulphuric acid,
NO x purification method of an exhaust purification system of an internal combustion engine in which an exhaust purification catalyst is arranged in an engine exhaust passage and a hydrocarbon feed valve is arranged in the engine exhaust passage upstream of the exhaust purification catalyst, a precious metal catalyst (51, 52) is carried on an exhaust gas flow surface of the exhaust purification catalyst and a basic exhaust gas flow surface part is formed around the precious metal catalyst (51, 52), the exhaust purification catalyst reducing NO x which is contained in exhaust gas if making a concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within a predetermined range of amplitude and by within a predetermined range of period, wherein in said exhaust purification catalyst, NO x contained in exhaust gas and hydrocarbons reformed by the exhaust purification catalyst react whereby a reducing intermediate containing nitrogen and hydrocarbons is produced and wherein a vibration period of the hydrocarbon concentration is a vibration period required for continuation of the production of the reducing intermediate, and being increased in storage amount of NO X which is contained in the exhaust gas if making the vibration period of the hydrocarbon concentration longer than the predetermined range, and, at the time of engine operation, hydrocarbons are injected from the hydrocarbon feed valve by the predetermined period whereby the NO x contained in the exhaust gas is removed, wherein a low pressure exhaust gas recirculation system which makes exhaust gas downstream of the exhaust purification catalyst in the engine exhaust passage recirculate to the inside of an intake passage is provided, carbon dioxide which is generated at the exhaust purification catalyst is recirculated if hydrocarbons are injected from the hydrocarbon feed valve when the exhaust gas recirculation action by the low pressure exhaust gas recirculation system is being performed and a temporary drop in an air-fuel ratio of an inflowing exhaust gas which flows into the exhaust purification catalyst is caused when a time which is required for recirculation of the carbon dioxide after injection of the hydrocarbons elapses, characterized in that hydrocarbons are injected from the hydrocarbon feed valve in synchronization with the temporary drop in the air-fuel ratio of said inflowing exhaust gas when injecting hydrocarbons from the hydrocarbon feed valve by the predetermined period.
An optical system configured to scan a laser light comprising: a prism having an incident surface, an exit surface, and one or more reflecting surfaces; a first scanning element configured to scan the laser light in a first direction, which is a diameter direction of a pupil diameter of the laser light, and reflect the laser light in a direction of the incident surface of the prism; and a second scanning element configured to scan in a second direction the laser light that exits from the exit surface of the prism, the second direction being orthogonal to the first direction, wherein the first scanning element, the incident surface, the one or more reflecting surfaces, the exit surface, and the second scanning element are arranged in order of the optical path of the laser light, and characterized in that the incident surface of the prism has a convex shape with respect to the first scanning element. a prism having an incident surface, an exit surface, and one or more reflecting surfaces; a first scanning element configured to scan the laser light in a first direction, which is a diameter direction of a pupil diameter of the laser light, and reflect the laser light in a direction of the incident surface of the prism; and a second scanning element configured to scan in a second direction the laser light that exits from the exit surface of the prism, the second direction being orthogonal to the first direction, wherein the first scanning element, the incident surface, the one or more reflecting surfaces, the exit surface, and the second scanning element are arranged in order of the optical path of the laser light, and characterized in that the incident surface of the prism has a convex shape with respect to the first scanning element.
A magnetic bearing assembly for a rotary machine having a rotor shaft, comprising a stator magnetic circuit secured to a stationary support element, the magnetic bearing assembly comprising an annular thrust collar secured to the rotor shaft and radially extending towards the stator magnetic circuit by a radial portion, characterized in that said magnetic bearing assembly comprises at least one body of ferromagnetic material and at least one coil, both being fitted in a protective annular housing leaving uncovered a surface of revolution of said ferromagnetic body and a surface of revolution of said one coil, said radial portion facing the uncovered surfaces (20a, 22a) of said ferromagnetic body and said one coil, and in that the annular thrust collar comprises at least one flow channel (30, 32) extending from the outer cylindrical surface of the radial portion towards the rotor shaft, said one flow channel being a radial groove provided on at least one of the lateral surfaces (16d, 16e) of the radial portion of the annular thrust collar and opening on the outer cylindrical surface of the rotor shaft.
A fuel cell system comprising a plurality of individual fuel cells combined to form a stack, with each of said individual fuel cells comprising a substantially planar membrane-electrode unit, two gas diffusion layers in the form of a fibrous structure, which gas diffusion layers border the mutually opposed larger surfaces of the membrane-electrode unit, and a bipolar plate producing the electrical connection to the adjacent individual fuel cell arranged thereabove or therebelow, said bipolar plate having an active region surrounded by an edge region, characterised in that the bipolar plates in the active region are formed in a completely planar manner, so that the gas-guiding region is formed exclusively by the gas diffusion layers (4, 5), which make up at least 60% of the height of an individual fuel cell, wherein the thickness of the gas diffusion layer (4, 5) lies in the order of 50-150 μm.
An operation apparatus for a master-slave-based medical robotic system comprising: an operation unit configured to receive a user input; a vibration unit configured to present a vibration of an operation target of the operation unit; characterized in that the operation apparatus further comprises: a contact unit comprising a first contact surface configured to transmit the vibration by the vibration unit to a finger of a user; and an installation unit comprising a second contact surface configured to come into contact with the finger of the user and coupled to the operation unit, the installation unit comprising an opening through which a protruding part of the contact unit comprising the first contact surface protrudes and the installation unit being attached to the contact unit via an elastic body. an operation unit configured to receive a user input; a vibration unit configured to present a vibration of an operation target of the operation unit; a contact unit comprising a first contact surface configured to transmit the vibration by the vibration unit to a finger of a user; and an installation unit comprising a second contact surface configured to come into contact with the finger of the user and coupled to the operation unit, the installation unit comprising an opening through which a protruding part of the contact unit comprising the first contact surface protrudes and the installation unit being attached to the contact unit via an elastic body.
A structured light depth sensing system comprising: a light source; a diffractive optical element, DOE, obtainable by a single-mask photolithographic process and configured to project a binary optical pattern (104, 220) onto a scene by passing light from the light source through the DOE, wherein the binary optical pattern comprises a plurality of tessellated instances of a binary codebook pattern generated to satisfy at least one codeword constraint, wherein the binary codebook pattern has even symmetry, i.e. each point (x,y) of the binary codebook pattern is reflected about an origin to a point (-x, -y) that is also in the binary codebook pattern, wherein the binary codebook pattern comprises a plurality of codewords, wherein the at least one codeword constraint requires that each of the plurality of codewords within the binary codebook pattern is unique within the binary codebook pattern, and wherein the binary optical pattern that is formed from the tessellated instances of the binary codebook pattern also has even symmetry; a receiver configured to capture a reflection of the projected binary optical pattern from the scene; means for identifying codewords in the captured reflection of the projected binary optical pattern from the scene; and means for determining depth information for the scene based on differences between the locations of codewords in the projected binary optical pattern and the locations of the codewords in the captured reflection of the binary optical pattern from the scene. a light source; a diffractive optical element, DOE, obtainable by a single-mask photolithographic process and configured to project a binary optical pattern (104, 220) onto a scene by passing light from the light source through the DOE, wherein the binary optical pattern comprises a plurality of tessellated instances of a binary codebook pattern generated to satisfy at least one codeword constraint, wherein the binary codebook pattern has even symmetry, i.e. each point (x,y) of the binary codebook pattern is reflected about an origin to a point (-x, -y) that is also in the binary codebook pattern, wherein the binary codebook pattern comprises a plurality of codewords, wherein the at least one codeword constraint requires that each of the plurality of codewords within the binary codebook pattern is unique within the binary codebook pattern, and wherein the binary optical pattern that is formed from the tessellated instances of the binary codebook pattern also has even symmetry; a receiver configured to capture a reflection of the projected binary optical pattern from the scene; means for identifying codewords in the captured reflection of the projected binary optical pattern from the scene; and means for determining depth information for the scene based on differences between the locations of codewords in the projected binary optical pattern and the locations of the codewords in the captured reflection of the binary optical pattern from the scene.