mhurhangee/patent-ind-claim-en huggingface dataset:
Equipment for preventing the dispersion of aerosol and/or secretions for fitting into a dental chair consisting of a core (A) and a membrane (B), - the core (A) comprising a rotation axle (A.3) and rod fittings (A.8) fixed to the rotation axle (A.3), - the membrane (B) comprising a cover (B.1) and a supporting structure (B.2) made up of rods, wherein - the core (A) comprises means for fitting into the dental chair, - the cover (B.1) is supported by the rods of the supporting structure (B.2), coupled to the core (A) by the interlocking of the rods of the supporting structure (B.2) to the rod fittings (A.8), - the supporting structure (B.2) rotates on the rotation axle (A.3). - the core (A) comprising a rotation axle (A.3) and rod fittings (A.8) fixed to the rotation axle (A.3), - the membrane (B) comprising a cover (B.1) and a supporting structure (B.2) made up of rods, - the core (A) comprises means for fitting into the dental chair, - the cover (B.1) is supported by the rods of the supporting structure (B.2), coupled to the core (A) by the interlocking of the rods of the supporting structure (B.2) to the rod fittings (A.8), - the supporting structure (B.2) rotates on the rotation axle (A.3).
A process for implementing an artificial neural network via an instruction stream comprising: defining a format for instructions in the instruction stream , the format comprising an opcode , an address , and data, wherein the opcode is followed by the address , and wherein the address is followed by the data; defining a header of the instruction stream , the header comprising a learning rate and activation function parameters; creating the instruction stream using the header , the opcode , the address , and the data; and implementing the artificial neural network by providing the instruction stream to a computer processor for execution of the instruction stream ; wherein the opcode comprises one or more of a layer type, a load instruction, a store instruction, a map done instruction, a set bias instruction, and a set value instruction; and wherein the address comprises one or more of an address from which to retrieve input data for input into a perceptron of the artificial neural network and an address to transmit output data from the perceptron of the artificial neural network. defining a format for instructions in the instruction stream , the format comprising an opcode , an address , and data, wherein the opcode is followed by the address , and wherein the address is followed by the data; defining a header of the instruction stream , the header comprising a learning rate and activation function parameters; creating the instruction stream using the header , the opcode , the address , and the data; and implementing the artificial neural network by providing the instruction stream to a computer processor for execution of the instruction stream ; wherein the opcode comprises one or more of a layer type, a load instruction, a store instruction, a map done instruction, a set bias instruction, and a set value instruction; and wherein the address comprises one or more of an address from which to retrieve input data for input into a perceptron of the artificial neural network and an address to transmit output data from the perceptron of the artificial neural network.
Lightning protection spark gap comprising: a first electrode , which has a first outer face (Aa) and a first inner face (Ia), and a second electrode , which has a second outer face (Ab) and a second inner face (Ib), the first electrode and the second electrode diverging from one another; the first and the second electrode being formed from a conductive base material having a first electrical conductivity; an ignition region (Z) and an adjacent arcing region (L) for an arc being formed between the first inner face (Ia) of the first electrode and the second inner face (Ib) of the second electrode ; a conductive layer of a conductive material having a second electrical conductivity being applied to the base material at least in regions at least in the arcing region (L) of one of the first and the second electrode ; and the second electrical conductivity being higher than the first electrical conductivity; characterised in that the conductive layer of the conductive material is applied to the base material at least in regions on the associated outer face (Aa, Ab) of the other of the first and the second electrode . a first electrode , which has a first outer face (Aa) and a first inner face (Ia), and a second electrode , which has a second outer face (Ab) and a second inner face (Ib), the first electrode and the second electrode diverging from one another; the first and the second electrode being formed from a conductive base material having a first electrical conductivity; an ignition region (Z) and an adjacent arcing region (L) for an arc being formed between the first inner face (Ia) of the first electrode and the second inner face (Ib) of the second electrode ; a conductive layer of a conductive material having a second electrical conductivity being applied to the base material at least in regions at least in the arcing region (L) of one of the first and the second electrode ; and the second electrical conductivity being higher than the first electrical conductivity; characterised in that the conductive layer of the conductive material is applied to the base material at least in regions on the associated outer face (Aa, Ab) of the other of the first and the second electrode .
A photoelectric sensor comprising a housing , that houses at least one of a light projecting unit that is configured to emit light and a light receiving unit that is configured to receive light in the housing , wherein the housing has an opening that allows at least one of light from the light projecting unit and light to the light receiving unit to pass through, a cover lens that covers the opening and that is configured to transmit the light is provided, the cover lens is joined to an edge portion of the housing that defines the opening , and an outer surface of the cover lens is applied with antifouling coating while a portion, which is in contact with the edge portion , of an inner surface of the cover lens is not applied with the antifouling coating , characterized in that a material constituting the antifouling coating is a structure that is a one-layer structure in which a coating base material and an antifouling coating material are chemically crosslinked. the housing has an opening that allows at least one of light from the light projecting unit and light to the light receiving unit to pass through, a cover lens that covers the opening and that is configured to transmit the light is provided, the cover lens is joined to an edge portion of the housing that defines the opening , and an outer surface of the cover lens is applied with antifouling coating while a portion, which is in contact with the edge portion , of an inner surface of the cover lens is not applied with the antifouling coating , characterized in that a material constituting the antifouling coating is a structure that is a one-layer structure in which a coating base material and an antifouling coating material are chemically crosslinked.
Apparatus for use with an optical frequency domain reflectometry (OFDR) system that includes a tunable laser source coupled to a sensing interferometer and a monitor interferometer , wherein the sensing interferometer is also coupled to an optical sensing waveguide, the apparatus comprising processing circuitry configured to: monitor (S10) a phase response of the monitor interferometer as the tunable laser source sweeps through a range of optical frequencies; use a sampling increment and an accumulated phase response from the monitor interferometer to sample waveguide sensing interferometric data (S11, S12) from distributed locations along the optical sensing waveguide, wherein, as the waveguide sensing interferometric data are sampled, the sampling increment is continuously adjusted, based on a continuous optical dispersion correction parameter to correct the waveguide sensing interferometric data for distributed optical dispersion and to provide dispersion-compensated waveguide sensing interferometric data; and perform (S4) a Fourier Transform of the dispersion-compensated waveguide sensing interferometric data to provide dispersion-compensated OFDR measurement information in a temporal domain for the distributed locations along the optical sensing waveguide. monitor (S10) a phase response of the monitor interferometer as the tunable laser source sweeps through a range of optical frequencies; use a sampling increment and an accumulated phase response from the monitor interferometer to sample waveguide sensing interferometric data (S11, S12) from distributed locations along the optical sensing waveguide, wherein, as the waveguide sensing interferometric data are sampled, the sampling increment is continuously adjusted, based on a continuous optical dispersion correction parameter to correct the waveguide sensing interferometric data for distributed optical dispersion and to provide dispersion-compensated waveguide sensing interferometric data; and perform (S4) a Fourier Transform of the dispersion-compensated waveguide sensing interferometric data to provide dispersion-compensated OFDR measurement information in a temporal domain for the distributed locations along the optical sensing waveguide.
A resin comprising repeating units represented by the formulae and , wherein the resin includes 20% by mole or more of repeating units represented by the formula with respect to a total amount of the repeating units represented by the formulae and : wherein in the formula , R 1 represents hydrogen or a C1-C6 alkyl group; S 1 represents -O- or -C(O)-; p represents 0 or 1; A 1 represents a C6-C19 aryl group; Y represents halogen, a cyano group, a carboxyalkyl group, an alkyl ether group, an aryl ether group, a C1-C18 alkyl group, a fluoroalkyl group, or a cycloalkyl group; and k represents an integer from 0 to (s-1), wherein s represents the number of carbon atoms constituting the A 1 , wherein in the formula , R 2 represents hydrogen or a C1-C6 alkyl group; S 2 represents -O- or -C(O)-; q represents 0 or 1; A 2 represents a C6-C19 aryl group; Y represents a substituent as defined in formula ; j represents an integer from 0 to (r-2) and m represents an integer from 1 to (r-j-1), wherein r represents the number of carbon atoms constituting the A 2 ; and Z represents at least one organic group selected from the formulae (A) to (D): wherein in the formulae (A) to (D), R 3 and R 4 each independently represents hydrogen, a C1-C6 alkyl group, an aryl group, or a carboxyalkyl group; and R 5 to R 29 independently represent hydrogen, halogen, a cyano group, a carboxyalkyl group, an alkyl ether group, an aryl ether group, a C1-C18 alkyl group, a fluoroalkyl group, or a cycloalkyl group. A 2 represents a C6-C19 aryl group; Y represents a substituent as defined in formula ; j represents an integer from 0 to (r-2) and m represents an integer from 1 to (r-j-1), wherein r represents the number of carbon atoms constituting the A 2 ; and Z represents at least one organic group selected from the formulae (A) to (D): wherein in the formulae (A) to (D), R 3 and R 4 each independently represents hydrogen, a C1-C6 alkyl group, an aryl group, or a carboxyalkyl group; and R 5 to R 29 independently represent hydrogen, halogen, a cyano group, a carboxyalkyl group, an alkyl ether group, an aryl ether group, a C1-C18 alkyl group, a fluoroalkyl group, or a cycloalkyl group.
Measuring insert for determining and/or monitoring a temperature (T) of a medium (M) in a vessel (V) or pipe for insertion into a protective tube which protective tube at least partially protrudes into an inner volume of the vessel (V) or pipe, the measuring insert comprising an elongated tube , and a temperature sensor arranged inside an end region of the elongated tube ; characterized in that, the measuring insert further comprises a coupling element fastened to the elongated tube , in the end region in which the temperature sensor is arranged, wherein the coupling element is embodied and/or dimensioned so as to serve for fixing the measuring insert inside the protective tube in a state in which the measuring insert is introduced into the protective tube , wherein the coupling element comprises: - a spring element as a first at least partially elastic and/or deformable element, wherein the spring element comprises a plurality of outward curved bars and at least one ring-shaped connection element , to which the plurality of bars is connected; and fastening means , for fastening the coupling element to the elongated tube , wherein the fastening means comprise at least one ring-shaped element, with an inner diameter corresponding to an outer diameter of the elongated tube . an elongated tube , and a temperature sensor arranged inside an end region of the elongated tube ; the measuring insert further comprises a coupling element fastened to the elongated tube , in the end region in which the temperature sensor is arranged, wherein the coupling element is embodied and/or dimensioned so as to serve for fixing the measuring insert inside the protective tube in a state in which the measuring insert is introduced into the protective tube , wherein the coupling element comprises: - a spring element as a first at least partially elastic and/or deformable element, wherein the spring element comprises a plurality of outward curved bars and at least one ring-shaped connection element , to which the plurality of bars is connected; and fastening means , for fastening the coupling element to the elongated tube , wherein the fastening means comprise at least one ring-shaped element, with an inner diameter corresponding to an outer diameter of the elongated tube . - a spring element as a first at least partially elastic and/or deformable element, wherein the spring element comprises a plurality of outward curved bars and at least one ring-shaped connection element , to which the plurality of bars is connected;
An imaging device comprising: an image sensor that includes an imaging surface on which a plurality of pixels are two-dimensionally arranged and that generates image data from a subject image formed on the imaging surface; and an optical system that images a subject on the imaging surface, the subject being in a predetermined range of a vertical view angle and in a predetermined range of a horizontal view angle, wherein a number of pixels used for capturing the subject image included in a unit view angle is defined as resolution, the imaging surface includes a first region including an intersection with an optical axis and a second region different from the first region, and the optical system forms the subject image on the imaging surface so as to cause resolution of the first region to be higher than resolution of the second region, characterized in that a relationship between a vertical view angle and resolution is different from a relationship between a horizontal view angle and resolution in the subject image, and the optical system has a ratio of the vertical view angle to the horizontal view angle in which the vertical view angle of the optical system is increased compared to a ratio that corresponds to an aspect ratio of the imaging surface, wherein in a first subject image of the subject image an average of vertical resolution is higher than an average of horizontal resolution, the first subject being formed in the first region. an image sensor that includes an imaging surface on which a plurality of pixels are two-dimensionally arranged and that generates image data from a subject image formed on the imaging surface; and an optical system that images a subject on the imaging surface, the subject being in a predetermined range of a vertical view angle and in a predetermined range of a horizontal view angle, wherein a number of pixels used for capturing the subject image included in a unit view angle is defined as resolution, the imaging surface includes a first region including an intersection with an optical axis and a second region different from the first region, and the optical system forms the subject image on the imaging surface so as to cause resolution of the first region to be higher than resolution of the second region, characterized in that a relationship between a vertical view angle and resolution is different from a relationship between a horizontal view angle and resolution in the subject image, and the optical system has a ratio of the vertical view angle to the horizontal view angle in which the vertical view angle of the optical system is increased compared to a ratio that corresponds to an aspect ratio of the imaging surface, wherein in a first subject image of the subject image an average of vertical resolution is higher than an average of horizontal resolution, the first subject being formed in the first region.
Device to monitor an operating area of an operating machine provided with a work member and support and movement means of said work member , said monitoring device comprising: - at least an optical recording unit able to acquire images of said operating area surrounding said work member , - a management unit configured to receive and process said images acquired by said optical recording unit , in order to identify possible fixed and/or moving obstacles, and to send a command signal to said work member , when said obstacle is detected in said operating area , and - a positioning member able to position said optical recording unit said monitoring device being characterized in that said positioning member is provided with drive members selectively drivable by said management unit and is able to be selectively activated, by commands from said management unit , to position said optical recording unit in relation to the position of said work member during the operating cycle and in relation to the possible presence of one or more fixed and/or moving obstacles in said operating area . - at least an optical recording unit able to acquire images of said operating area surrounding said work member , - a management unit configured to receive and process said images acquired by said optical recording unit , in order to identify possible fixed and/or moving obstacles, and to send a command signal to said work member , when said obstacle is detected in said operating area , and - a positioning member able to position said optical recording unit said monitoring device being characterized in that said positioning member is provided with drive members selectively drivable by said management unit and is able to be selectively activated, by commands from said management unit , to position said optical recording unit in relation to the position of said work member during the operating cycle and in relation to the possible presence of one or more fixed and/or moving obstacles in said operating area .
An active hearing protection device comprising: a communication device configured to provide active hearing protection to a user; a set of earmuffs connected to the communication device , wherein each earmuff comprises an indicator mechanism configured to indicate to the communication device when the earmuff is inserted into the user's ear; a processor configured to receive information from the set of earmuffs and the indicator mechanisms of the earmuffs , and configured to automatically power the active hearing protection device on or off based on the information received from the indicator mechanisms ; wherein the active hearing protection device is configured to power on when each indicator mechanism indicates that the earmuffs are inserted into the user's ears; wherein the indicator mechanisms comprise one or more of the following: a pressure sensor, a push button, a thermal sensor, and an accelerometer. a communication device configured to provide active hearing protection to a user; a set of earmuffs connected to the communication device , wherein each earmuff comprises an indicator mechanism configured to indicate to the communication device when the earmuff is inserted into the user's ear; a processor configured to receive information from the set of earmuffs and the indicator mechanisms of the earmuffs , and configured to automatically power the active hearing protection device on or off based on the information received from the indicator mechanisms ; wherein the active hearing protection device is configured to power on when each indicator mechanism indicates that the earmuffs are inserted into the user's ears; wherein the indicator mechanisms comprise one or more of the following: a pressure sensor, a push button, a thermal sensor, and an accelerometer.
Transport device for a laboratory sample distribution system comprising a plurality of actuator modules , wherein each actuator module has a regular polygonal basic shape with three, four or six corners, and wherein each actuator module comprises a plurality of electro-magnetic actuators , a driving surface adapted to carry sample container carriers, wherein the driving surface is arranged above the electro-magnetic actuators , said electro-magnetic actuators being adapted to move sample container carriers placed on said driving surface by applying a magnetic force to said sample containers carriers, a support frame with support bars , and a device for mounting said plurality of actuator modules in a grid pattern to said support frame , the device for mounting said plurality of actuator modules comprising a plurality of support brackets mountable to the support bars , wherein the corners of neighboring actuator modules define nodes of the grid pattern, wherein each support bracket is provided with a support structure arranged at a node of the grid pattern and having a cross element adapted to support corner regions of neighboring actuator modules at said node, and wherein at least some of the support brackets are provided with a pillar element adapted to support the driving surface arranged above the electro-magnetic actuators . a plurality of actuator modules , wherein each actuator module has a regular polygonal basic shape with three, four or six corners, and wherein each actuator module comprises a plurality of electro-magnetic actuators , a driving surface adapted to carry sample container carriers, wherein the driving surface is arranged above the electro-magnetic actuators , said electro-magnetic actuators being adapted to move sample container carriers placed on said driving surface by applying a magnetic force to said sample containers carriers, a support frame with support bars , and a device for mounting said plurality of actuator modules in a grid pattern to said support frame , the device for mounting said plurality of actuator modules comprising a plurality of support brackets mountable to the support bars , wherein the corners of neighboring actuator modules define nodes of the grid pattern, wherein each support bracket is provided with a support structure arranged at a node of the grid pattern and having a cross element adapted to support corner regions of neighboring actuator modules at said node, and wherein at least some of the support brackets are provided with a pillar element adapted to support the driving surface arranged above the electro-magnetic actuators .