mhurhangee/ep-ind-claims huggingface dataset:
A combination of a patient-specific bone implant for placement on a bone and a customized surgical guide for surgical instruments for placement on the patient-specific bone implant, wherein said guide and said patient-specific bone implant engage by means of a unique fit, wherein said customized surgical guide comprises: - one or more customized guiding elements (10, 11) for the surgical instruments; - one or more surfaces (7, 8, 9) which ensure the unique fit with the implant by the congruency between said surfaces (7, 8, 9) and one or more surface structures (17, 18, 19) of the implant; - one or more surfaces arranged to specifically mate with a bone by the congruency between said surfaces and one or more areas of the bone. - one or more customized guiding elements (10, 11) for the surgical instruments; - one or more surfaces (7, 8, 9) which ensure the unique fit with the implant by the congruency between said surfaces (7, 8, 9) and one or more surface structures (17, 18, 19) of the implant; - one or more surfaces arranged to specifically mate with a bone by the congruency between said surfaces and one or more areas of the bone.
A light emitting device package comprising: a light source (130; 230; 330; 430); a lead frame to mount the light source thereon and being electrically connected to the light source, the lead frame comprising first and second electrically conductive lead frames (140,142) being spaced from each other; and a mold member disposed over the light source and over the lead frame, and including a sealing material (160; 260; 360; 460) and organic particles (161; 261; 361; 461), wherein a proportion of the organic particles to the sealing material is in a range of 1 wt% to 20 wt%, wherein each of the organic particles (161; 261; 361; 461) comprises a coating layer to coat the organic particle, characterized in that the coating layer has an index of refraction different from that of the organic particle, and wherein the coating layer has an index of refraction larger than that of the organic particle. a light source (130; 230; 330; 430); a lead frame to mount the light source thereon and being electrically connected to the light source, the lead frame comprising first and second electrically conductive lead frames (140,142) being spaced from each other; and a mold member disposed over the light source and over the lead frame, and including a sealing material (160; 260; 360; 460) and organic particles (161; 261; 361; 461), wherein a proportion of the organic particles to the sealing material is in a range of 1 wt% to 20 wt%, wherein each of the organic particles (161; 261; 361; 461) comprises a coating layer to coat the organic particle, characterized in that the coating layer has an index of refraction different from that of the organic particle, and wherein the coating layer has an index of refraction larger than that of the organic particle.
A system comprising an IC tag unit for an instrument and the instrument, the IC tag unit being configured to be mounted to said instrument, the instrument having: a scale plate and an indicator; and a transparent cover plate which covers the scale plate and the indicator, the scale plate provided with scale increments, the IC tag unit comprising: an IC tag including an IC chip and an antenna, the IC tag being capable of communicating stored information by a radio wave in a contactless manner; and a mounting medium configured to mount the IC tag to the transparent cover plate and hold the IC tag, the IC tag unit being configured to be used together with a wireless reader which performs wireless communication with the IC tag, wherein the IC tag performs wireless communication with the wireless reader via the antenna, and the IC tag is provided on the mounting medium at a position where the IC tag is not overlapped, in a viewing direction, with any of the scale increments and an indicating portion of the indicator at a time of mounting the IC tag to the transparent cover plate, characterized in that the IC tag unit further comprises a scale increment reading module which reads operation of the indicator, and which includes a sensor which is opposed to the indicator on the mounting medium and which reads a position of the indicator on the basis of relative movement thereof. the IC tag unit being configured to be mounted to said instrument, the instrument having: a scale plate and an indicator; and a transparent cover plate which covers the scale plate and the indicator, the scale plate provided with scale increments, the IC tag unit comprising: an IC tag including an IC chip and an antenna, the IC tag being capable of communicating stored information by a radio wave in a contactless manner; and a mounting medium configured to mount the IC tag to the transparent cover plate and hold the IC tag, an IC tag including an IC chip and an antenna, the IC tag being capable of communicating stored information by a radio wave in a contactless manner; and a mounting medium configured to mount the IC tag to the transparent cover plate and hold the IC tag, the IC tag unit being configured to be used together with a wireless reader which performs wireless communication with the IC tag, wherein the IC tag performs wireless communication with the wireless reader via the antenna, and the IC tag is provided on the mounting medium at a position where the IC tag is not overlapped, in a viewing direction, with any of the scale increments and an indicating portion of the indicator at a time of mounting the IC tag to the transparent cover plate, characterized in that the IC tag unit further comprises a scale increment reading module which reads operation of the indicator, and which includes a sensor which is opposed to the indicator on the mounting medium and which reads a position of the indicator on the basis of relative movement thereof.
Process for treating and generating energy from biomass, comprising the step of: i. Providing a biomass; and characterised by comprising the steps of: ii. Diluting the biomass with a thinner up to a volatile solids content comprised between 0.5% and 1% of the volume of said biomass, wherein the thinner is an aqueous liquid; iii. Alkalizing the biomass of item ii with a basic solution, up to a pH comprised between 11.0 and 13.0, wherein said biomass of item ii and said basic solution are in a weight ratio comprised between 1:20 and 1:80; iv. Hydrolysing the alkalised biomass of item iii, for a time comprised between 30 and 90 minutes, at a temperature comprised between 55°C and 80°C, thereby obtaining a hydrolysed biomass; v. Neutralising the hydrolysed biomass of item iv, through diffusion of CO 2 from a biogas produced by anaerobic digestion, thereby obtaining a hydrolysed and neutralised sludge; vi. Performing anaerobic digestion, through a first anaerobic digestor, of said hydrolysed and neutralised sludge, thereby obtaining a biogas, a first digestate, an anaerobic sludge, wherein the biomass is chosen among: biologic sludges, organic wastes, process water, treated or not treated residual sludges from the plants for treating urban, household and industrial wastewater, treated or not treated residual sludges from production processes, and in which the organic wastes are organic wastes resulting from compost plants, comprising wastes derived from agriculture, horticulture and food preparation, sludges resulting from civil and industrial wastewater treatment plants. i. Providing a biomass; ii. Diluting the biomass with a thinner up to a volatile solids content comprised between 0.5% and 1% of the volume of said biomass, wherein the thinner is an aqueous liquid; iii. Alkalizing the biomass of item ii with a basic solution, up to a pH comprised between 11.0 and 13.0, wherein said biomass of item ii and said basic solution are in a weight ratio comprised between 1:20 and 1:80; iv. Hydrolysing the alkalised biomass of item iii, for a time comprised between 30 and 90 minutes, at a temperature comprised between 55°C and 80°C, thereby obtaining a hydrolysed biomass; v. Neutralising the hydrolysed biomass of item iv, through diffusion of CO 2 from a biogas produced by anaerobic digestion, thereby obtaining a hydrolysed and neutralised sludge; vi. Performing anaerobic digestion, through a first anaerobic digestor, of said hydrolysed and neutralised sludge, thereby obtaining a biogas, a first digestate, an anaerobic sludge,
A method of crimping a stent onto a balloon of a balloon catheter, comprising: providing a crimping apparatus including a plurality of crimping elements forming a crimping lumen having a diameter, wherein the plurality of crimping elements are actuatable to alter the diameter of the crimping lumen; providing a balloon catheter including an elongate shaft and an inflation balloon secured to a distal region of the elongate shaft; providing a stent; positioning the stent around the inflation balloon of the balloon catheter; situating the stent and the inflation balloon of the balloon catheter within the crimping lumen; crimping the stent onto the inflation balloon of the balloon catheter with the crimping apparatus; characterised in that the method further comprises heating the inflation balloon to a temperature greater than 40° C while crimping the stent onto the inflation balloon of the balloon catheter; and maintaining the crimping elements at a temperature less than 40° C while crimping the stent onto the inflation balloon of the balloon catheter. providing a crimping apparatus including a plurality of crimping elements forming a crimping lumen having a diameter, wherein the plurality of crimping elements are actuatable to alter the diameter of the crimping lumen; providing a balloon catheter including an elongate shaft and an inflation balloon secured to a distal region of the elongate shaft; providing a stent; positioning the stent around the inflation balloon of the balloon catheter; situating the stent and the inflation balloon of the balloon catheter within the crimping lumen; crimping the stent onto the inflation balloon of the balloon catheter with the crimping apparatus; characterised in that the method further comprises heating the inflation balloon to a temperature greater than 40° C while crimping the stent onto the inflation balloon of the balloon catheter; and maintaining the crimping elements at a temperature less than 40° C while crimping the stent onto the inflation balloon of the balloon catheter.
A method for controlling a resonance enhanced rotary drill comprising a drilling module and a control system for controlling one or more drilling parameters of the drilling module, which method comprises: (a) employing one or more initial drilling parameters, and optionally one or more initial characteristics of the material being drilled, to the control system and/or to the drilling module; (b) measuring one or more current drilling parameters to obtain one or more measured drilling parameters; (c) employing the one or more measured drilling parameters as an input in the control system, in order to obtain an output from the control system, which output comprises one or more calculated characteristics of the material being drilled, wherein the one or more characteristics of the material being drilled comprises the stiffness or the effective stiffness of the material; (d) employing the one or more calculated characteristics of the material being drilled and the one or more measured drilling parameters as inputs in the control system, in order to obtain an output from the control system, which output comprises one or more calculated drilling parameters, wherein the one or more calculated drilling parameters are obtained using a fuzzy logic model; and (e) applying the one or more calculated drilling parameters to the drilling module; (f) optionally repeating steps (b), (c), (d) and (e). (a) employing one or more initial drilling parameters, and optionally one or more initial characteristics of the material being drilled, to the control system and/or to the drilling module; (b) measuring one or more current drilling parameters to obtain one or more measured drilling parameters; (c) employing the one or more measured drilling parameters as an input in the control system, in order to obtain an output from the control system, which output comprises one or more calculated characteristics of the material being drilled, wherein the one or more characteristics of the material being drilled comprises the stiffness or the effective stiffness of the material; (d) employing the one or more calculated characteristics of the material being drilled and the one or more measured drilling parameters as inputs in the control system, in order to obtain an output from the control system, which output comprises one or more calculated drilling parameters, wherein the one or more calculated drilling parameters are obtained using a fuzzy logic model; and (e) applying the one or more calculated drilling parameters to the drilling module; (f) optionally repeating steps (b), (c), (d) and (e).
Lighting device for motor vehicle, said lighting device comprising: - a housing adapted to be fixed in the motor vehicle; - a series of N light modules accommodated inside said housing, each light module comprising at least one light source cooperating with an optical surface, each light module being provided with a heat sink (3a, 3b, 3c); - a generator of an air flow; and - a single air duct being suitable for cooperating with said generator of the air flow such as to direct said generated air flow towards the heat sink of each light module, - the air duct being divided into N air sub-ducts (17a, 17b, 17c), each air sub-duct (17a, 17b, 17c) supplying a light module of the series of the N light modules, respectively, with air characterized in that - the air duct is formed by: - an open part added in the housing; and - at least one closing structural element (1, 11), said at least one closing structural element being suitable for closing all or part of said added open part, and - the air sub-duct which supplies the light module furthest from the air flow generator with air includes an outlet which section is closed and formed directly by the added open part and the housing. - a housing adapted to be fixed in the motor vehicle; - a series of N light modules accommodated inside said housing, each light module comprising at least one light source cooperating with an optical surface, each light module being provided with a heat sink (3a, 3b, 3c); - a generator of an air flow; and - a single air duct being suitable for cooperating with said generator of the air flow such as to direct said generated air flow towards the heat sink of each light module, - the air duct being divided into N air sub-ducts (17a, 17b, 17c), each air sub-duct (17a, 17b, 17c) supplying a light module of the series of the N light modules, respectively, with air - the air duct is formed by: - an open part added in the housing; and - at least one closing structural element (1, 11), said at least one closing structural element being suitable for closing all or part of said added open part, and - an open part added in the housing; and - at least one closing structural element (1, 11), said at least one closing structural element being suitable for closing all or part of said added open part, and - the air sub-duct which supplies the light module furthest from the air flow generator with air includes an outlet which section is closed and formed directly by the added open part and the housing.
Method of determining at least one filter of a filter bank of a transmission or coding system, on the basis of a prototype filter p, characterized in that said method comprises a step of determining coefficients p [ k] of said prototype filter p, of length L equal to N, on the basis of Δ angular parameters θ i, for 0 ≤ i ≤ Δ - 1 and Δ = N / M a relative integer, expressed on the basis of a polynomial function f ( x), also called a compact representation, such that: f x = π 4 + t ∑ k = 0 d − 1 β k T 2 k t t = 2 x − 1 with: - T n ( t) the Chebyshev polynomial of degree n; - d the degree of the compact representation; - β k the parameters of the compact representation; - θ i = f ( x i) with x i = 2 i + 1 2 Δ; - p [ i] = cos θ i, p [ M + i] = sin θ i, for 0 ≤ i ≤ Δ - 1; - p [k] = 1, Δ ≤ k ≤ M - 1; - M and N relative integers representative of said transmission or coding system. - T n ( t) the Chebyshev polynomial of degree n; - d the degree of the compact representation; - β k the parameters of the compact representation; - θ i = f ( x i) with x i = 2 i + 1 2 Δ; - p [ i] = cos θ i, p [ M + i] = sin θ i, for 0 ≤ i ≤ Δ - 1; - p [k] = 1, Δ ≤ k ≤ M - 1; - M and N relative integers representative of said transmission or coding system.
A control system of a wind power installation and/or of a wind farm, wherein - the control system comprises a multiplicity of operating modes (B1, B2, B3) and - has an interface, in particular for providing maximum adjustability of the wind power installation and/or of the wind farm in critical power grid situations, wherein - the interface is configured to receive a signal (S go) of a power grid operator, characterized in that - all of the multiplicity of operating modes (B1, B2, B3) are released and made available to the power grid operator. - the control system comprises a multiplicity of operating modes (B1, B2, B3) and - has an interface, in particular for providing maximum adjustability of the wind power installation and/or of the wind farm in critical power grid situations, wherein - the interface is configured to receive a signal (S go) of a power grid operator, characterized in that - all of the multiplicity of operating modes (B1, B2, B3) are released and made available to the power grid operator. - the interface is configured to receive a signal (S go) of a power grid operator, characterized in that - all of the multiplicity of operating modes (B1, B2, B3) are released and made available to the power grid operator. - all of the multiplicity of operating modes (B1, B2, B3) are released and made available to the power grid operator.
An apparatus comprising: a bias voltage generator providing a bias voltage as a function of temperature; and a first metal oxide semiconductor, MOS, transistor receiving an input radio frequency, RF, signal and the bias voltage and providing a rectified signal, the rectified signal being a linear function of the input RF signal and having reduced deviation with temperature due to the bias voltage;. characterised in that the bias voltage generator comprises: a first operational amplifier, op-amp, having an non-inverting input receiving a reference voltage, and wherein the bias voltage is the voltage at the output of the first op-amp, a second MOS transistor having a gate coupled to the output of the first op-amp and a source coupled to an inverting input of the first op-amp, and a current source coupled to the source of the second MOS transistor. a bias voltage generator providing a bias voltage as a function of temperature; and a first metal oxide semiconductor, MOS, transistor receiving an input radio frequency, RF, signal and the bias voltage and providing a rectified signal, the rectified signal being a linear function of the input RF signal and having reduced deviation with temperature due to the bias voltage;. a first operational amplifier, op-amp, having an non-inverting input receiving a reference voltage, and wherein the bias voltage is the voltage at the output of the first op-amp, a second MOS transistor having a gate coupled to the output of the first op-amp and a source coupled to an inverting input of the first op-amp, and a current source coupled to the source of the second MOS transistor.
An aircraft heated floor panel comprising: a first support layer; a second support layer; a heating layer located between the first support layer and the second support layer, and characterized by a first adhesive layer located between the first support layer and the heating layer; a second adhesive layer (20 located between the second support layer and the heating layer; a first fiber reinforcing layer abutting the first support layer on a side opposite the first adhesive layer; and a second fiber reinforcing layer abutting the second support layer on a side opposite the second adhesive layer; wherein the first and second support layers (12, 14) each include a honeycomb layer. a first support layer; a second support layer; a heating layer located between the first support layer and the second support layer, and characterized by a first adhesive layer located between the first support layer and the heating layer; a second adhesive layer (20 located between the second support layer and the heating layer; a first fiber reinforcing layer abutting the first support layer on a side opposite the first adhesive layer; and a second fiber reinforcing layer abutting the second support layer on a side opposite the second adhesive layer; wherein the first and second support layers (12, 14) each include a honeycomb layer.
Tank of a space vehicle, which comprises a device (200, 300) for the generation of a force acting on a propellant contained in the tank, which device comprises a magnetic device for the generation of an external magnetic field, and thereby for the induction of a magnetic moment in the propellant, wherein the magnetic device has at least two elements (220, 220a, 220b, 230, 230a, 230b, 240, 240', 240", 310, 310', 320, 320', 330', 330"), which can be moved relative to one another so as to adjust the external magnetic field.
Device for applying paste products, of the type which are suitable for being assembled coupled behind a conventional cartridge provided with a piston, a container of paste material, such as silicones, sealants, glues, anti-rust agents, greases and the like, and an expulsion nozzle, wherein the device comprises: an elongated case, provided with a housing in the front part for the placement of the cartridge and with a housing in the rear part for the placement of an impeller assembly; the impeller assembly, which is formed by a head provided with a cover in its front part and the front side segment of the head having a threaded inner surface, wherein the head is configured to push the piston of the cartridge; an electric motor with at least one output shaft (7, 8) which is configured to rotate in the two directions of rotation, wherein the electric motor is connected to operating means and to a reduction gear which adjusts the speed of the output shaft (7, 8); and operating/stopping means of the impeller assembly; characterized in that the head is joined at its threaded inner surface by means of a threaded connection to a threaded outer surface of a sleeve with a cylindrical configuration, the respective threads of the surfaces (6, 30) of the head and the sleeve having suitable shape, the mentioned sleeve being integrally joined to at least one disc (3, 24) which rotates integrally with one shaft (7, 8) of the electric motor the operation of the impeller assembly consisting of the forward and backward movement of the head on the outside of the cylindrical outer surface of the sleeve, as a result of the rotation of said sleeve in the two directions transmitted by said shaft (7, 8), and when the head remains immobile, fixed behind the piston of the cartridge, the electric motor and the reduction gear are displaced the distance that the head has moved, said reduction gear being able to have a single output shaft, and the assembly being able to incorporate vibratory means suitable for generating a forward movement of the applicator device. an elongated case, provided with a housing in the front part for the placement of the cartridge and with a housing in the rear part for the placement of an impeller assembly; the impeller assembly, which is formed by a head provided with a cover in its front part and the front side segment of the head having a threaded inner surface, wherein the head is configured to push the piston of the cartridge; an electric motor with at least one output shaft (7, 8) which is configured to rotate in the two directions of rotation, wherein the electric motor is connected to operating means and to a reduction gear which adjusts the speed of the output shaft (7, 8); and operating/stopping means of the impeller assembly;