mhurhangee/ep-ind-claims huggingface dataset:
Food cutting appliance comprising: - a frame defining a cutting area, - a cutting tool (10; 10'; 10") movable relative to the frame at least in the cutting area in a reciprocating rectilinear movement in a cutting plane, - means for manoeuvring the movable cutting tool (10; 10'; 10"), which comprises a transmission system driving the cutting tool (10; 10'; 10") characterised in that the transmission system comprises: - a fixed output ring gear of main axis (Ω), - a satellite output pinion which meshes with the fixed output ring gear and which carries a cylindrical conformation driving the cutting tool (10; 10'; 10"), - a transmission plate which is mobile in rotation about the main axis (Ω) and which carries an offset axis of rotation of the output satellite pinion, the fixed output ring gear having a diameter that is approximately double the diameter of the output satellite pinion, and the distance between the axis of rotation of the output satellite pinion and the axis of the cylindrical conformation being approximately equal to the radius of the output satellite pinion, such that the cylindrical conformation has a displacement along an approximately linear path. - a frame defining a cutting area, - a cutting tool (10; 10'; 10") movable relative to the frame at least in the cutting area in a reciprocating rectilinear movement in a cutting plane, - means for manoeuvring the movable cutting tool (10; 10'; 10"), which comprises a transmission system driving the cutting tool (10; 10'; 10") - a fixed output ring gear of main axis (Ω), - a satellite output pinion which meshes with the fixed output ring gear and which carries a cylindrical conformation driving the cutting tool (10; 10'; 10"), - a transmission plate which is mobile in rotation about the main axis (Ω) and which carries an offset axis of rotation of the output satellite pinion,
Filter device, in particular for the filtration of lubricating oil, consisting of at least one filter cartridge in which a filter material is accommodated in each case and which is provided with fluid passage points which are bounded by wall parts of the filter cartridge, and with a backflushing device (37, 49) which comprises at least one flushing nozzle that can be moved along the inside of the respectively assignable filter cartridge by means of a hollow drive shaft, wherein for each filter cartridge (19, 21) at least one pair of flushing nozzles is provided which have elongated slots (73, 74) arranged one above the other in axial orientation of the drive shaft, characterised in that the elongated slots (73, 74) have an offset relative to one another extending transverse to the axial orientation in such a manner that, with adjacently arranged flushing nozzles, at least part of the elongated slot of the one flushing nozzle is in alignment with at least one of the fluid passage points of the assignable filter cartridge (19, 21) and the elongated slot of the other flushing nozzle is in alignment with wall parts of this filter cartridge (19, 21) which bound this fluid passage point.
A circuit configuration, comprising: a DC source for providing a DC voltage; a boost converter for boosting the DC voltage provided by said DC source; and an intermediate circuit capacitor connected between the outputs of said boost converter, wherein said DC source comprises a first DC source having a first output and a second output, and a second DC source having a first output and a second output, wherein said first output of said first DC source is connected to one side of said intermediate circuit capacitor, and said second output of said second DC source is connected to the other side of said intermediate circuit capacitor; and wherein said boost converter is provided as a common boost converter for boosting both the DC voltage provided by said first DC source and the DC voltage provided by said second DC source, characterized in that said common boost converter includes a series circuit having a first inductance and a first rectifier element and being connected between said second output of said first DC source and said other side of said intermediate circuit capacitor, and a series circuit having a second inductance and a second rectifier element and being connected between said first output of said second DC source and said one side of said intermediate circuit capacitor; and said common boost converter includes a common switching element connected between the connection between said first inductance and said first rectifier element and the connection between said second inductance and said second rectifier element. a DC source for providing a DC voltage; a boost converter for boosting the DC voltage provided by said DC source; and an intermediate circuit capacitor connected between the outputs of said boost converter, wherein said DC source comprises a first DC source having a first output and a second output, and a second DC source having a first output and a second output, wherein said first output of said first DC source is connected to one side of said intermediate circuit capacitor, and said second output of said second DC source is connected to the other side of said intermediate circuit capacitor; and wherein said boost converter is provided as a common boost converter for boosting both the DC voltage provided by said first DC source and the DC voltage provided by said second DC source, said common boost converter includes a series circuit having a first inductance and a first rectifier element and being connected between said second output of said first DC source and said other side of said intermediate circuit capacitor, and a series circuit having a second inductance and a second rectifier element and being connected between said first output of said second DC source and said one side of said intermediate circuit capacitor; and said common boost converter includes a common switching element connected between the connection between said first inductance and said first rectifier element and the connection between said second inductance and said second rectifier element.
An apparatus comprising: an enclosure defining an acoustic volume, the enclosure capable of receiving a transducer for converting electrical signals into audible signals, wherein the transducer is mountable into an external wall of the enclosure such as to directly radiate audible signals into an ambient environment; structures (418, 422, 432) that define two adjacent port channels (412, 414) that share a wall structure and allow air to flow between the exterior of the enclosure and the acoustic volume, wherein each port channel having one end located within the enclosure and another end that is external to the enclosure; and an acoustic resistive element incorporated into the shared wall structure, the acoustic resistive element being capable of changing the acoustic characteristics of the port channel within the enclosure, wherein the acoustic resistive element is flush to one or both surfaces of the shared wall structure, and wherein the acoustic resistive element is a screen incorporated into the shared wall structure. an enclosure defining an acoustic volume, the enclosure capable of receiving a transducer for converting electrical signals into audible signals, wherein the transducer is mountable into an external wall of the enclosure such as to directly radiate audible signals into an ambient environment; structures (418, 422, 432) that define two adjacent port channels (412, 414) that share a wall structure and allow air to flow between the exterior of the enclosure and the acoustic volume, wherein each port channel having one end located within the enclosure and another end that is external to the enclosure; and an acoustic resistive element incorporated into the shared wall structure, the acoustic resistive element being capable of changing the acoustic characteristics of the port channel within the enclosure, wherein the acoustic resistive element is flush to one or both surfaces of the shared wall structure, and wherein the acoustic resistive element is a screen incorporated into the shared wall structure.
A non-volatile memory device, comprising: N planes of non-volatile memory cells, where N is an integer greater than 1, wherein each plane of non-volatile memory cells includes a plurality of memory cells configured in rows and columns, and wherein each of the N planes includes first gate lines that extend across the rows of the memory cells therein but do not extend to others of the N planes of non-volatile memory cells, and wherein the N planes include second gate lines that each extends across one of the rows of the memory cells in each of the N planes; a controller configured to: divide each of a plurality of words of data into N fractional-words, program each of the N fractional-words of each word of data into one of the N planes of non-volatile memory cells using a programming current and within a program time period, the non-volatile memory device characterised in that the controller is further configured to: vary the programming current by a factor, and inversely vary the program time period by the factor. N planes of non-volatile memory cells, where N is an integer greater than 1, wherein each plane of non-volatile memory cells includes a plurality of memory cells configured in rows and columns, and wherein each of the N planes includes first gate lines that extend across the rows of the memory cells therein but do not extend to others of the N planes of non-volatile memory cells, and wherein the N planes include second gate lines that each extends across one of the rows of the memory cells in each of the N planes; a controller configured to: divide each of a plurality of words of data into N fractional-words, program each of the N fractional-words of each word of data into one of the N planes of non-volatile memory cells using a programming current and within a program time period, the non-volatile memory device characterised in that the controller is further configured to: vary the programming current by a factor, and inversely vary the program time period by the factor. divide each of a plurality of words of data into N fractional-words, program each of the N fractional-words of each word of data into one of the N planes of non-volatile memory cells using a programming current and within a program time period, the non-volatile memory device characterised in that the controller is further configured to: vary the programming current by a factor, and inversely vary the program time period by the factor. vary the programming current by a factor, and inversely vary the program time period by the factor.
A method for determining a pose of a camera (22, 32) relative to a real environment, said method comprising the following steps: - receiving an image of the real environment from the camera (22, 32), the image containing at least a part of a real object, - determining an environment parameter vector descriptive of one or more conditions of the real environment at a time at which the image is captured, - comparing the image to a data model obtained based on a comparison of the environment parameter vector to a model parameter vector of the data model, the model parameter vector describing at least one condition of the real environment as represented by the data model, - performing a tracking method to identify correspondences between features associated with the real object and corresponding features of the data model, - determining a pose of the camera (22, 32) based on a result of the tracking method, and - determining an uncertainty of the pose of the camera (22, 32) based on a difference between the environment parameter vector and the model parameter vector. - receiving an image of the real environment from the camera (22, 32), the image containing at least a part of a real object, - determining an environment parameter vector descriptive of one or more conditions of the real environment at a time at which the image is captured, - comparing the image to a data model obtained based on a comparison of the environment parameter vector to a model parameter vector of the data model, the model parameter vector describing at least one condition of the real environment as represented by the data model, - performing a tracking method to identify correspondences between features associated with the real object and corresponding features of the data model, - determining a pose of the camera (22, 32) based on a result of the tracking method, and - determining an uncertainty of the pose of the camera (22, 32) based on a difference between the environment parameter vector and the model parameter vector.
An electrosurgical instrument, comprising: a coaxial feed cable for conveying microwave energy, the coaxial feed cable having an inner conductor, an outer conductor and a dielectric material separating the inner conductor and the outer conductor; an instrument tip disposed at a distal end of the coaxial feed cable to receive the microwave energy and/or the radiofrequency energy; and a fluid channel for conveying fluid to the instrument tip, wherein the instrument tip comprises: a dielectric body; a radiating structure for radiating the microwave energy into biological tissue, wherein the radiating structure is formed in and/or on the dielectric body, and wherein the radiating structure includes a first electrode that is electrically connected to the inner conductor, and a second electrode that is electrically connected to the outer conductor, the first electrode and the second electrode being exposed on an outer surface of the dielectric body; and a hollow needle in fluid communication with the fluid channel, the hollow needle being arranged to deliver fluid from the fluid channel to a treatment site, and wherein the radiating structure is coated with an insulating non-stick material. a coaxial feed cable for conveying microwave energy, the coaxial feed cable having an inner conductor, an outer conductor and a dielectric material separating the inner conductor and the outer conductor; an instrument tip disposed at a distal end of the coaxial feed cable to receive the microwave energy and/or the radiofrequency energy; and a fluid channel for conveying fluid to the instrument tip, wherein the instrument tip comprises: a dielectric body; a radiating structure for radiating the microwave energy into biological tissue, wherein the radiating structure is formed in and/or on the dielectric body, and wherein the radiating structure includes a first electrode that is electrically connected to the inner conductor, and a second electrode that is electrically connected to the outer conductor, the first electrode and the second electrode being exposed on an outer surface of the dielectric body; and a hollow needle in fluid communication with the fluid channel, the hollow needle being arranged to deliver fluid from the fluid channel to a treatment site, and a dielectric body; a radiating structure for radiating the microwave energy into biological tissue, wherein the radiating structure is formed in and/or on the dielectric body, and wherein the radiating structure includes a first electrode that is electrically connected to the inner conductor, and a second electrode that is electrically connected to the outer conductor, the first electrode and the second electrode being exposed on an outer surface of the dielectric body; and a hollow needle in fluid communication with the fluid channel, the hollow needle being arranged to deliver fluid from the fluid channel to a treatment site, and wherein the radiating structure is coated with an insulating non-stick material.
A construct comprising a plurality of nanometric magnetite particles whose surface is functionalized with catechol having the OH polar groups adhering to the surface of the particles and the end part, not bound to the particle surface, presenting hydrophobic reactivity, said nanometric magnetite particles being in the form of a cluster, said construct encapsulated in a biocompatible polymeric matrix.
A method for detecting a brain response state of a subject, wherein said method comprising: repeatedly presenting said subject with a sound stimulus for evoking a brain response; detecting an evoked brain response signal related to each of said sound stimulus, wherein said evoked brain response signal is an electrophysiological signal and said evoked brain response signal comprises at least one peak related to an evoked response of at least one neuron; determining a time window, said time window has a time width (21, 31, 41) covering at least partly one of said at least one peak (32a-32g, 42a-42h)in said evoked brain response signal; calculating an average evoked response signal (33, 43) based on said evoked brain response signals over said time window and comparing said evoked brain response signals over said time window with said average evoked response signal or calculating an average value based on one of said evoked brain response signal over said time window and comparing subparts of said evoked brain response signal over said time windo with said average value; and determining a variance and/or volatility of the evoked response of the at least one neuron based on one of the two comparisons. repeatedly presenting said subject with a sound stimulus for evoking a brain response; detecting an evoked brain response signal related to each of said sound stimulus, wherein said evoked brain response signal is an electrophysiological signal and said evoked brain response signal comprises at least one peak related to an evoked response of at least one neuron; determining a time window, said time window has a time width (21, 31, 41) covering at least partly one of said at least one peak (32a-32g, 42a-42h)in said evoked brain response signal; calculating an average evoked response signal (33, 43) based on said evoked brain response signals over said time window and comparing said evoked brain response signals over said time window with said average evoked response signal or calculating an average value based on one of said evoked brain response signal over said time window and comparing subparts of said evoked brain response signal over said time windo with said average value; and determining a variance and/or volatility of the evoked response of the at least one neuron based on one of the two comparisons.
A combustor wall (68, 70) for a turbine engine, the combustor wall comprising: a combustor shell (82, 84) extending axially along a centerline, the shell (84, 84) formed from a first material; and a combustor heat shield (86, 88) extending axially along the centerline, the heat shield (86, 88) formed from a second material that is different than the first material, and the heat shield (86, 88) connected to the shell (82, 84) by a bonded connection; wherein a cooling cavity (90, 92) is defined radially between the shell (82, 84) and the heat shield (86, 88); characterised in that the bonded connection comprises a partial transient liquid phase bonded connection. a combustor shell (82, 84) extending axially along a centerline, the shell (84, 84) formed from a first material; and a combustor heat shield (86, 88) extending axially along the centerline, the heat shield (86, 88) formed from a second material that is different than the first material, and the heat shield (86, 88) connected to the shell (82, 84) by a bonded connection; wherein a cooling cavity (90, 92) is defined radially between the shell (82, 84) and the heat shield (86, 88); characterised in that the bonded connection comprises a partial transient liquid phase bonded connection.
A thermoformed article comprising: a nucleated propylene-based polymer comprising a substituted 1,2-phenylene dibenzoate selected from the group consisting of 3-methyl-5-tert-butyl-1,2-phenylene dibenzoate and 3,5-diisopropyl-1,2-phenylene dibenzoate; the thermoformed article having a haze value from 1% to 10% as measured in accordance with ASTM D 1003. a nucleated propylene-based polymer comprising a substituted 1,2-phenylene dibenzoate selected from the group consisting of 3-methyl-5-tert-butyl-1,2-phenylene dibenzoate and 3,5-diisopropyl-1,2-phenylene dibenzoate; the thermoformed article having a haze value from 1% to 10% as measured in accordance with ASTM D 1003.
An isolated polynucleotide encoding a polypeptide which possesses FGF2 activity and increased thermostability compared to a wild-type FGF2 polypeptide and wherein: (i) the polypeptide comprises SEQ ID NO:2 or a fragment thereof, but having amino acid substitutions (a) Q65L, Q65I, or Q65V, (b) N111A, or N111G, and (c) C96S, or C96T; or (ii) the polypeptide is a polypeptide having at least 85% sequence identity to SEQ ID NO:2, or a fragment thereof, but comprising amino acid substitutions (a) Q65L, Q65I, or Q65V, (b) N111A, or N111G, and (c) C96S, or C96T. (i) the polypeptide comprises SEQ ID NO:2 or a fragment thereof, but having amino acid substitutions (a) Q65L, Q65I, or Q65V, (b) N111A, or N111G, and (c) C96S, or C96T; or (ii) the polypeptide is a polypeptide having at least 85% sequence identity to SEQ ID NO:2, or a fragment thereof, but comprising amino acid substitutions (a) Q65L, Q65I, or Q65V, (b) N111A, or N111G, and (c) C96S, or C96T.
Scanning unit for determining a relative angular position of an angle scale which can be rotated about an axis with respect to the scanning unit, comprising - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is mounted on the first surface (1.1) of the printed circuit board and is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system, - a contact carrier which encloses electrical contacts (4.1) for establishing a plug-in connection and has an outer wall (4.2) and which is mounted on the second surface (1.2) of the printed circuit board, so that the contacts (4.1) run in a direction which has an axial component with respect to the axis, - a housing body (5; 5') with an opening which has an inner wall (5.111), - a first elastic element, wherein the contact carrier projects into the opening, wherein the first elastic element is arranged between the inner wall (5.111) of the opening and the outer wall (4.2) of the contact carrier with radial prestress with respect to the axis, so that the contact carrier is arranged in a manner centred with respect to the inner wall (5.111) of the opening, and the printed circuit board is radially spaced apart from the housing body (5; 5') with respect to the axis by way of a first gap (Gr) from the housing body (5; 5') and is connected in a rotationally fixed manner to the housing body (5; 5'). - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is mounted on the first surface (1.1) of the printed circuit board and is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system, - a contact carrier which encloses electrical contacts (4.1) for establishing a plug-in connection and has an outer wall (4.2) and which is mounted on the second surface (1.2) of the printed circuit board, so that the contacts (4.1) run in a direction which has an axial component with respect to the axis, - a housing body (5; 5') with an opening which has an inner wall (5.111), - a first elastic element,