mhurhangee/patent-ind-claim-en huggingface dataset:
A lamp for a vehicle, comprising: at least one light source ; an outer lens for covering the at least one light source a housing coupled to the outer lens to form a space; and an antenna module disposed in the space characterized in that the antenna module comprises at least one horn antenna for transmitting and receiving electromagnetic waves in a horizontal direction, and the lamp further comprises a Printed Circuit Board, PCB , disposed in the space, and electrically connected with the at least one horn antenna, wherein the PCB is horizontally disposed, wherein a top surface of the PCB is electrically connected with the at least one horn antenna, and wherein a bottom surface of the PCB is electrically connected with a Monolithic Microwave Integrated Circuit, MMIC, that is included in a radar device. an outer lens for covering the at least one light source a housing coupled to the outer lens to form a space; and an antenna module disposed in the space characterized in that the antenna module comprises at least one horn antenna for transmitting and receiving electromagnetic waves in a horizontal direction, and the lamp further comprises a Printed Circuit Board, PCB , disposed in the space, and electrically connected with the at least one horn antenna, wherein the PCB is horizontally disposed, wherein a top surface of the PCB is electrically connected with the at least one horn antenna, and wherein a bottom surface of the PCB is electrically connected with a Monolithic Microwave Integrated Circuit, MMIC, that is included in a radar device.
A probe for atomic force microscope comprising: - an optomechanical resonator coupled to optical means configured to emit an incident light-beam towards said resonator and to receive an emerging light-beam from said resonator and - a probe tip extending along an axis, said resonator comprising a resonant body of planar structure which extends along a plane and from which said probe tip protrudes directly into the plane of said resonant body, said resonant body being adapted to resonate both on a volume mechanical vibration mode and on a volume optical vibration mode, said probe tip being disposed in correspondence of a point of maximum amplitude of said volume mechanical vibration mode, the optical means comprising a waveguide disposed in the plane of said resonant body at a predetermined distance from said resonant body and substantially perpendicular to the axis of the probe tip such that a mechanical deformation of said resonant body according to said volume mechanical vibration mode induces a modification of the state of light transmission of said volume optical vibration mode, modifying the emerging light-beam. - an optomechanical resonator coupled to optical means configured to emit an incident light-beam towards said resonator and to receive an emerging light-beam from said resonator and - a probe tip extending along an axis, said resonator comprising a resonant body of planar structure which extends along a plane and from which said probe tip protrudes directly into the plane of said resonant body, said resonant body being adapted to resonate both on a volume mechanical vibration mode and on a volume optical vibration mode, said probe tip being disposed in correspondence of a point of maximum amplitude of said volume mechanical vibration mode, the optical means comprising a waveguide disposed in the plane of said resonant body at a predetermined distance from said resonant body and substantially perpendicular to the axis of the probe tip such that a mechanical deformation of said resonant body according to said volume mechanical vibration mode induces a modification of the state of light transmission of said volume optical vibration mode, modifying the emerging light-beam.
A three-dimensional printing method, comprising: applying a build material; selectively applying a first liquid functional material including ferromagnetic nanoparticles on at least a portion of the build material, wherein the ferromagnetic nanoparticles are selected from the group consisting of an iron oxide, a ferrite, a combination of the iron oxide and a ferromagnetic metal oxide, and combinations thereof; and exposing the build material to electromagnetic radiation having a frequency ranging from about 5 kHz to about 300 GHz, thereby sintering the portion of the build material in contact with the first liquid functional material. applying a build material; selectively applying a first liquid functional material including ferromagnetic nanoparticles on at least a portion of the build material, wherein the ferromagnetic nanoparticles are selected from the group consisting of an iron oxide, a ferrite, a combination of the iron oxide and a ferromagnetic metal oxide, and combinations thereof; and exposing the build material to electromagnetic radiation having a frequency ranging from about 5 kHz to about 300 GHz, thereby sintering the portion of the build material in contact with the first liquid functional material.
A method for wireless communication in a 3GPP system, comprising: identifying a timing advance, TA, value associated with a wireless transmission; identifying a TA threshold value based at least in part on a transmission time interval, TTI, of the wireless transmission, wherein the identifying the TA threshold value comprises identifying the TA threshold value as a first TA threshold when the TTI of the wireless transmission is a two-symbol TTI, and identifying the TA threshold value as a second TA threshold when the TTI of the wireless transmission is a one-slot TTI or a 1 ms TTI, and wherein the first TA threshold is different from the second TA threshold; setting HARQ-ACK timing associated with the wireless transmission based at least in part on the TA value and the TA threshold value, wherein when the TA value is above the TA threshold value, the HARQ-ACK timing is increased; and transmitting, by a wireless transmitter, one or more signals in accordance with the HARQ-ACK timing associated with the wireless transmission. identifying a timing advance, TA, value associated with a wireless transmission; identifying a TA threshold value based at least in part on a transmission time interval, TTI, of the wireless transmission, wherein the identifying the TA threshold value comprises identifying the TA threshold value as a first TA threshold when the TTI of the wireless transmission is a two-symbol TTI, and identifying the TA threshold value as a second TA threshold when the TTI of the wireless transmission is a one-slot TTI or a 1 ms TTI, and wherein the first TA threshold is different from the second TA threshold; setting HARQ-ACK timing associated with the wireless transmission based at least in part on the TA value and the TA threshold value, wherein when the TA value is above the TA threshold value, the HARQ-ACK timing is increased; and transmitting, by a wireless transmitter, one or more signals in accordance with the HARQ-ACK timing associated with the wireless transmission.
An isolated antibody that specifically binds to an unsulfated epitope of a human Sclerostin sulfation site but does not substantially bind to the sulfated sulfation site, wherein the sulfation site includes Tyr 43 or Tyr 213 .
Watercraft with at least a first socket and a second socket , wherein the first socket and the second socket are designed for receiving a first supporting element , and with a mobile ballistic shield , wherein the mobile ballistic shield has at least a first supporting element and a second supporting element , at least a first plate element and at least a first rail element , wherein the at least first supporting element and the second supporting element can be arranged vertically, wherein the at least first plate element can be arranged between the first supporting element and the second supporting element , wherein the first rail element can be arranged above the first supporting element , the second supporting element and the first plate element , wherein the first supporting element has a first recess for receiving the first plate element , wherein the second supporting element has a first recess for receiving the first plate element , wherein the first supporting element has on the underside a first anchoring device , wherein the second supporting element has on the underside a second anchoring device , wherein the first supporting element and the first rail element can be non-positively interconnected, wherein the second supporting element and the first rail element can be non-positively interconnected, wherein the mobile ballistic shield has at least a third supporting element , at least a second plate element and at least a second rail element , wherein the second supporting element has a second recess for receiving the second plate element , wherein the third supporting element has a first recess for receiving the second plate element , wherein the third supporting element has on the underside a third anchoring device , the first recess of the second supporting element and the second recess of the second supporting element are arranged lying opposite, wherein the first recess of the second supporting element and the second recess of the second supporting element are arranged at an obtuse angle in relation to one another, wherein the obtuse angle is 135° and wherein the socket has a water outlet .
A machine-readable medium having machine-executable instructions configured to perform a method for analyzing the ophthalmic anatomy of a patient posterior to the cornea, the method comprising: scanning a focus of a femtosecond laser beam along a path within the patient's eye , wherein at least a portion of the path is disposed posterior to the patient's cornea, and wherein the path includes a first focus location and a second focus location ; characterized by the method comprising acquiring a first reflectance image associated with the focus disposed at the first focus location ; acquiring a second reflectance image associated with the focus disposed at the second focus location ; the method further comprising determining the presence or absence of an ophthalmic anatomical feature of the eye based on a comparison between the first reflectance image and the second reflectance image . scanning a focus of a femtosecond laser beam along a path within the patient's eye , wherein at least a portion of the path is disposed posterior to the patient's cornea, and wherein the path includes a first focus location and a second focus location ; characterized by the method comprising acquiring a first reflectance image associated with the focus disposed at the first focus location ; acquiring a second reflectance image associated with the focus disposed at the second focus location ; the method further comprising determining the presence or absence of an ophthalmic anatomical feature of the eye based on a comparison between the first reflectance image and the second reflectance image .
A motor vehicle hybrid panel assembly, comprising: • a body formed of a metallic sheet having an aperture created therein, the aperture at least partially surrounded by a peripheral flange ; • a reinforcement member of a polymeric material integrally connected to the peripheral flange ; and • at least one connecting member of the polymeric material integrally connected to the reinforcement member and extending away from the peripheral flange on the body . • a body formed of a metallic sheet having an aperture created therein, the aperture at least partially surrounded by a peripheral flange ; • a reinforcement member of a polymeric material integrally connected to the peripheral flange ; and • at least one connecting member of the polymeric material integrally connected to the reinforcement member and extending away from the peripheral flange on the body .
A two-part structural adhesive system comprising a part (A) containing a saturated epoxy resin and a compound having at least two epoxy groups and one hydroxy group, and a part (B) containing a metal salt catalyst and an amine hardener wherein the adhesive system is substantially free of aromatic epoxy resins.
Method for producing a biocompatible implant , comprising the following steps: S1) providing a plastics powder composed of a polyaryletherketone; S2) heating and pressing the plastics powder to form at least one intermediate piece ; S3) mechanically comminuting the at least one intermediate piece to form a granular material (G1, G2, G3); and S4) thermally bonding the granular material (G1, G2, G3) in a mould to form an implant , wherein the at least one granular material (G1, G2, G3) is exposed to a spatially inhomogeneous heat distribution during the thermal bonding, wherein the implant has an implant body having at least one first porous section and one second porous section , wherein the first porous section and the second porous section differ in their porosity. S1) providing a plastics powder composed of a polyaryletherketone; S2) heating and pressing the plastics powder to form at least one intermediate piece ; S3) mechanically comminuting the at least one intermediate piece to form a granular material (G1, G2, G3); and S4) thermally bonding the granular material (G1, G2, G3) in a mould to form an implant , wherein the at least one granular material (G1, G2, G3) is exposed to a spatially inhomogeneous heat distribution during the thermal bonding, wherein the implant has an implant body having at least one first porous section and one second porous section , wherein the first porous section and the second porous section differ in their porosity.
A cosmetic composition with antiperspirant and deodorant properties comprising: from 0.05 to 35 % by weight (wt%) of a multi-substituted hydroxyapatite with at least two cations selected among aluminium, zinc, magnesium, zirconium, titanium copper, silver or iron; and at least one of liquid carriers other than water, propellants, other additives having antiperspirant and/or deodorizing effect, emulsifiers, structurants, emollients, fragrances, antioxidants or preservatives.
Vertical ball mill , in particular for pre-grinding material to be ground, such as minerals, comprising: a rotor that is axially and radially mounted at an upper end and hangs downwards, a stator which radially surrounds the rotor , is not loaded by a weight of the rotor , stands in a self-supporting manner, and has a lateral surface that is oriented tangentially to the rotor and is approximately cylindrical, within a shape tolerance, and a base plate that supports a weight of the stator , wherein the stator is composed of at least two stator segments which may be separated from one another, stand unsupported in the separated state, and may be moved relative to one another, wherein each of the stator segments comprises, on at least one side edge of the wall , extending from a top edge of a wall forming the lateral surface to a bottom edge of the wall , a sealing surface for sealing to the other stator segment in each case, and, on the bottom edge, a standing surface which is dimensioned appropriately for the load and is intended for sealing to the base plate , wherein the stator segment weighs, in a standing manner, on the base plate with the standing surface , in a manner orthogonal within an angular tolerance on a load-bearing surface of the base plate . a rotor that is axially and radially mounted at an upper end and hangs downwards, a stator which radially surrounds the rotor , is not loaded by a weight of the rotor , stands in a self-supporting manner, and has a lateral surface that is oriented tangentially to the rotor and is approximately cylindrical, within a shape tolerance, and a base plate that supports a weight of the stator , wherein the stator is composed of at least two stator segments which may be separated from one another, stand unsupported in the separated state, and may be moved relative to one another, wherein each of the stator segments comprises, on at least one side edge of the wall , extending from a top edge of a wall forming the lateral surface to a bottom edge of the wall , a sealing surface for sealing to the other stator segment in each case, and, on the bottom edge, a standing surface which is dimensioned appropriately for the load and is intended for sealing to the base plate , wherein the stator segment weighs, in a standing manner, on the base plate with the standing surface , in a manner orthogonal within an angular tolerance on a load-bearing surface of the base plate .
Apparatus for monitoring one or more components of a watercraft propelling system, at least one of said components being composed of a mechanical seal device for a drive shaft (R) extending through an opening in a watercraft hull, said device being intended to prevent water from leaking inside said hull through said opening, said drive shaft (R) being rotatable about an axis of rotation coinciding with its longitudinal axis, which mechanical seal device comprises a stationary part connectable to said hull and a rotary part , coupled so as to rotate to said stationary part and integrally connected to said drive shaft, the stationary part and the rotary part being provided with a stationary annular sliding element and a rotary annular sliding element respectively, said annular sliding elements being provided each one with a planar contact face and the two contact faces being coplanar and in contact with each other, characterized in that it comprises a controller and a plurality of sensors for detecting operating parameters of said one or more components and for generating corresponding control signals, which sensors are configured so as to transmit the control signals to the controller , wherein sensors comprise sensors detecting the operating parameters of the mechanical seal device , said sensors comprising a wear sensor for the contact faces, which wear sensor is arranged for measuring the wear of one or both the annular elements so as to denote how much the faces have withdrawn during sliding and how much one or both the annular elements have worn out and therefore have grown thin, wherein said controller is set such to carry out an estimate of the residual time of the operating life of the mechanical seal device on the basis of the said control signals. which mechanical seal device comprises a stationary part connectable to said hull and a rotary part , coupled so as to rotate to said stationary part and integrally connected to said drive shaft, the stationary part and the rotary part being provided with a stationary annular sliding element and a rotary annular sliding element respectively, said annular sliding elements being provided each one with a planar contact face and the two contact faces being coplanar and in contact with each other, characterized in that it comprises a controller and a plurality of sensors for detecting operating parameters of said one or more components and for generating corresponding control signals, which sensors are configured so as to transmit the control signals to the controller , wherein sensors comprise sensors detecting the operating parameters of the mechanical seal device , said sensors comprising a wear sensor for the contact faces, which wear sensor is arranged for measuring the wear of one or both the annular elements so as to denote how much the faces have withdrawn during sliding and how much one or both the annular elements have worn out and therefore have grown thin, wherein said controller is set such to carry out an estimate of the residual time of the operating life of the mechanical seal device on the basis of the said control signals.
An air quantity recording and invoicing device comprising: a. an air conveyor unit for generating an air volume flow (Q) through an air passage , b. a measuring unit formed for measuring ventilation parameters (P) of the respective air volume flow (Q) passing through the air passage , c. an evaluation unit for analyzing the measured parameters (P) to ascertain therefrom the total air volume (V) which was conveyed over a period of time t through the air passage by the air conveyor unit , d. a transmission unit for transmitting the value for the air volume (V) ascertained by the evaluation unit to a validation unit , and a e. validation unit , which links the air volume flow (Q) or the ascertained air volume (V) to an economic value (W) to obtain an invoicing value for the generated air volume (V) therefrom. characterized in that the validation unit is furthermore formed to calculate a remaining service life t Rest from the total ascertained air volume and the corresponding measurement period of the air conveyor unit . a. an air conveyor unit for generating an air volume flow (Q) through an air passage , b. a measuring unit formed for measuring ventilation parameters (P) of the respective air volume flow (Q) passing through the air passage , c. an evaluation unit for analyzing the measured parameters (P) to ascertain therefrom the total air volume (V) which was conveyed over a period of time t through the air passage by the air conveyor unit , d. a transmission unit for transmitting the value for the air volume (V) ascertained by the evaluation unit to a validation unit , and a e. validation unit , which links the air volume flow (Q) or the ascertained air volume (V) to an economic value (W) to obtain an invoicing value for the generated air volume (V) therefrom.
A computer-implemented method comprising: capturing , using an optical detector system , an image of a scene that includes a bright object ; determining an identity of the bright object using predetermined data relating to known objects; determining a location of the bright object within the image; determining , based on the location of the bright object within the image, an extent of stray light (802; 1212; 1222) from the bright object that is represented in the image; determining , by comparing the extent of stray light from the bright object that is represented in the image to a predetermined threshold extent of stray light, whether one or more defects are present within the optical detector system, wherein the predetermined threshold extent of stray light corresponds to an expected extent of stray light for the bright object that is based on the identity of the bright object; upon determining that one or more defects are present within the optical detector system, performing a corrective action; after performing the corrective action, capturing, using the optical detector system, a second image of the scene; determining a second extent of stray light represented in the second image; and comparing the second extent of stray light to the expected extent of stray light for the bright object to determine whether the one or more defects are still present within the optical detector system. capturing , using an optical detector system , an image of a scene that includes a bright object ; determining an identity of the bright object using predetermined data relating to known objects; determining a location of the bright object within the image; determining , based on the location of the bright object within the image, an extent of stray light (802; 1212; 1222) from the bright object that is represented in the image; determining , by comparing the extent of stray light from the bright object that is represented in the image to a predetermined threshold extent of stray light, whether one or more defects are present within the optical detector system, wherein the predetermined threshold extent of stray light corresponds to an expected extent of stray light for the bright object that is based on the identity of the bright object; upon determining that one or more defects are present within the optical detector system, performing a corrective action; after performing the corrective action, capturing, using the optical detector system, a second image of the scene; determining a second extent of stray light represented in the second image; and comparing the second extent of stray light to the expected extent of stray light for the bright object to determine whether the one or more defects are still present within the optical detector system.