mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a terminal in a wireless multiple access communication system comprising a plurality of terminals, a forward link to the terminal and a return link from the terminal, wherein the plurality of terminals share the same frequency band but change their centre frequency and/or occupied bandwidth over time, the method comprising: acquiring frequency synchronization with a stable common reference in the system; receiving, on the forward link, information instructing the terminal the symbol rate and centre frequency to be transmitted during a subsequent transmission slot in the return link,, each transmission slot being defined as a time slot and the centre frequency; transmitting, at one of a set of different symbol rates, the set of symbol rates by the terminal such that the time-duration of the transmission slot of the return link signal is an integer multiple of a symbol period, whereby the transmission slot comprising a number of transmission symbols and, at the beginning and/or end, a number of zero-energy symbols; transmitting a return link signal from the terminal across a sequence of transmission slots at a symbol rate and a centre frequency based on the acquired frequency synchronization and received information, wherein the carrier phase of the return link signal is continuous at boundaries of transmission slots; and adjusting the centre frequency and the symbol rate of the transmission slot at the start of a new transmission slot; maintaining the synchronization by counting transmitted symbols. acquiring frequency synchronization with a stable common reference in the system; receiving, on the forward link, information instructing the terminal the symbol rate and centre frequency to be transmitted during a subsequent transmission slot in the return link,, each transmission slot being defined as a time slot and the centre frequency; transmitting, at one of a set of different symbol rates, the set of symbol rates by the terminal such that the time-duration of the transmission slot of the return link signal is an integer multiple of a symbol period, whereby the transmission slot comprising a number of transmission symbols and, at the beginning and/or end, a number of zero-energy symbols; transmitting a return link signal from the terminal across a sequence of transmission slots at a symbol rate and a centre frequency based on the acquired frequency synchronization and received information, wherein the carrier phase of the return link signal is continuous at boundaries of transmission slots; and adjusting the centre frequency and the symbol rate of the transmission slot at the start of a new transmission slot; maintaining the synchronization by counting transmitted symbols.
An apparatus for delivering laser energy to a process area on a target surface of a work piece, comprising: an optical assembly mounted on a positioning system, including a receiving optic, beam formatting optics and a scanner, the beam formatting optics including a polarization controller, a divergence controller and an aspect ratio controller; a laser system adapted to produce laser energy; a beam delivery system (103, 105, 105A) to direct laser energy from the laser system to the receiving optic on the optical assembly; a rotation controller in an optical path between the laser system and the scanner; and a control system (112, 113, 114), coupled to the laser system, the optical assembly, the positioning system and the beam delivery system, which is programmed to place the optical assembly in a position to receive laser energy from the laser system via the beam delivery system, and while the position of the optical assembly remains unchanged, to direct the laser energy using the scanner to impact areas having nominal shapes and locations in the process area according to a pattern; and for each impact area in the pattern, to set direction, divergence, polarization, rotation and aspect ratio of the laser energy output from the scanner, to control the polarization, shape and location on respective impact areas in the process area of the laser energy. an optical assembly mounted on a positioning system, including a receiving optic, beam formatting optics and a scanner, the beam formatting optics including a polarization controller, a divergence controller and an aspect ratio controller; a laser system adapted to produce laser energy; a beam delivery system (103, 105, 105A) to direct laser energy from the laser system to the receiving optic on the optical assembly; a rotation controller in an optical path between the laser system and the scanner; and a control system (112, 113, 114), coupled to the laser system, the optical assembly, the positioning system and the beam delivery system, which is programmed to place the optical assembly in a position to receive laser energy from the laser system via the beam delivery system, and while the position of the optical assembly remains unchanged, to direct the laser energy using the scanner to impact areas having nominal shapes and locations in the process area according to a pattern; and for each impact area in the pattern, to set direction, divergence, polarization, rotation and aspect ratio of the laser energy output from the scanner, to control the polarization, shape and location on respective impact areas in the process area of the laser energy.
Method of separating a solid-state layer from a solid-state body, in which modifications define a detachment plane for guiding of a crack for removal of a solid-state component, especially a solid-state layer, from the solid-state body, wherein the method comprises: moving the solid-state body relative to a laser treatment device; successively generating laser beams by means of the laser treatment device for generating at least one modification in each case, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed; and removing the solid-state layer from the solid-state body along the detachment plane, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed, characterized in that the laser treatment device is adjusted for defined generation of modifications depending on at least one parameter, especially the transmittance of the solid-state body, at defined sites and for a defined solid-state body depth, in that the adjustment of the laser treatment device compensates for inhomogeneities in the solid-state body in the region of the surface treated and/or in the region of the volume of the solid-state body treated and in that data for the parameter or for multiple parameters are either provided in a data storage device and sent to a control device at least before the generation of the modifications, wherein the control device adjusts the laser treatment device depending on the respective site of the modification to be generated, or are generated in real time and are used directly for actuation of the laser treatment device. moving the solid-state body relative to a laser treatment device; successively generating laser beams by means of the laser treatment device for generating at least one modification in each case, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed; and removing the solid-state layer from the solid-state body along the detachment plane, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed, characterized in that the laser treatment device is adjusted for defined generation of modifications depending on at least one parameter, especially the transmittance of the solid-state body, at defined sites and for a defined solid-state body depth, in that the adjustment of the laser treatment device compensates for inhomogeneities in the solid-state body in the region of the surface treated and/or in the region of the volume of the solid-state body treated and in that data for the parameter or for multiple parameters are either provided in a data storage device and sent to a control device at least before the generation of the modifications, wherein the control device adjusts the laser treatment device depending on the respective site of the modification to be generated, or are generated in real time and are used directly for actuation of the laser treatment device.
Brushed electric motor comprising an outer case, two brushes and a rotor having a first axial end and a second axial end which is inserted within said outer case, said brushed electric motor being in particular usable in environments with risk of fire or explosion or in presence of potentially explosive or flammable fluids and comprising at least one filler element made with a polymer based material, said at least one filler element being positioned internally to said outer case of said brushed electric motor, for minimizing the free volume within said brushed electric motor and for allowing at the same time to maintain high power and high performance characteristics of said brushed electric motor, so minimizing the possibility of trigger of a burst or fire and characterized in that said brushed electric motor further comprises a printed circuit board which is inserted internally to said outer case, and wherein said at least one filler element comprises a housing for said printed circuit board for preventing short circuits due to dusts produced by said two brushes and wherein said at least one filler element comprises a first filler element and a second filler element, wherein said first filler element comprises a first housing for a first face of said printed circuit board, and said second filler element comprises a second housing for a second face of said printed circuit board, for completely enclosing said electric circuit and at least a part of the components of said printed circuit board.
A position sensing system comprising: a waveguide configured to receive a pulse at a first end and transmit the pulse through the waveguide resulting in an end of line pulse exiting the waveguide at a second end; a magnet moveable relative to the waveguide, the magnet configured to cause a reflected pulse to be reflected back to the first end of the waveguide from a point of impedance discontinuity in the waveguide proximate the magnet; and a compensator (202, 302, 1102) electrically coupled to the waveguide and comprising a pulse generator (220, 320, 1120) configured to generate the pulse, receive the end of line pulse, generate one or more additional pulses with a period based at least in part on a time between generating the first pulse and receiving the end of line pulse, and communicate the one or more additional pulses to the first end of the waveguide; and a position determination module (230, 330, 1130) configured to receive the pulse, the end of line pulse, and the reflected pulse and determine the point of impedance discontinuity based at least in part on a time between receiving the pulse and the reflected pulse. a waveguide configured to receive a pulse at a first end and transmit the pulse through the waveguide resulting in an end of line pulse exiting the waveguide at a second end; a magnet moveable relative to the waveguide, the magnet configured to cause a reflected pulse to be reflected back to the first end of the waveguide from a point of impedance discontinuity in the waveguide proximate the magnet; and a compensator (202, 302, 1102) electrically coupled to the waveguide and comprising a pulse generator (220, 320, 1120) configured to generate the pulse, receive the end of line pulse, generate one or more additional pulses with a period based at least in part on a time between generating the first pulse and receiving the end of line pulse, and communicate the one or more additional pulses to the first end of the waveguide; and a pulse generator (220, 320, 1120) configured to generate the pulse, receive the end of line pulse, generate one or more additional pulses with a period based at least in part on a time between generating the first pulse and receiving the end of line pulse, and communicate the one or more additional pulses to the first end of the waveguide; and a position determination module (230, 330, 1130) configured to receive the pulse, the end of line pulse, and the reflected pulse and determine the point of impedance discontinuity based at least in part on a time between receiving the pulse and the reflected pulse.
A module holder and heat sink, particularly for LED modules and the like, comprising a module holder body which is adapted to be coupled to the heat sink with the interposition of a thermal interface material, said module holder being provided with holes for coupling to said heat sink, characterized in that rivets are being provided for insertion in said holes with the interposition of springs, and the module holder and heat sink comprises means which are adapted to allow the coupling by interference of said module holder with said heat sink, said means being adapted to allow the engagement of said rivets by means of the rotation or translational motion of said module holder with respect to said heat sink.
An inkjet printing method including the steps of: a) jetting a radiation curable inkjet ink on a polymeric surface wherein the polymer of the polymeric surface is selected from the group consisting of a polyolefin, a polyester and copolymers thereof; b) curing the radiation curable inkjet ink on the polymeric surface; and c) heat sterilization; wherein the radiation curable inkjet ink includes at least 5 wt% of a (meth)acrylated silicone surfactant based on the total weight of the radiation curable inkjet ink; and wherein the viscosity of the radiation curable inkjet ink is smaller than 30 mPa.s at 25°C and at a shear rate of 1,000 s -1. a) jetting a radiation curable inkjet ink on a polymeric surface wherein the polymer of the polymeric surface is selected from the group consisting of a polyolefin, a polyester and copolymers thereof; b) curing the radiation curable inkjet ink on the polymeric surface; and c) heat sterilization;
An antibody or antigen-binding fragment thereof which binds to IL-22R, wherein the antibody or antigen-binding fragment thereof comprises a heavy chain variable domain and a light chain variable domain and wherein the antibody or antigen-binding fragment comprises a combination of variable heavy chain CDR sequences: HCDR3 comprising SEQ ID NO: 6; HCDR2 comprising SEQ ID NO: 36; and HCDR1 comprising SEQ ID NO: 34, and a combination of variable light chain CDR sequences: LCDR3 comprising SEQ ID NO: 54; LCDR2 comprising SEQ ID NO: 47; and LCDR1 comprising SEQ ID NO: 16.
A control method performed by an electronic device, the method comprising monitoring current consumption for each of a plurality of components of the electronic device; determining a first surface temperature (T1, T2) to be predicted of the electronic device based on power consumption of the plurality of components corresponding to the monitored current consumption and detecting a location (P1, P2) where heat is generated; determining a second surface temperature to be predicted by analyzing power consumption of a component of said plurality of components corresponding to the location (P1, P2) where heat is generated; determining whether the predicted second surface temperature is greater than or equal to a predetermined temperature; when the predicted second surface temperature is greater than or equal to the predetermined temperature, setting a target temperature and controlling the component to reduce the power consumption; wherein determining the first surface temperature (T1, T2) and determining the second surface temperature are based on a thermal resistance value and a thermal capacitance value for each of the plurality of components and the current consumption (q1, q2), and wherein the first surface temperature (T1, T2) is related to a current surface temperature of the electronic device and the second surface temperature is related to a future surface temperature of the electronic device. monitoring current consumption for each of a plurality of components of the electronic device; determining a first surface temperature (T1, T2) to be predicted of the electronic device based on power consumption of the plurality of components corresponding to the monitored current consumption and detecting a location (P1, P2) where heat is generated; determining a second surface temperature to be predicted by analyzing power consumption of a component of said plurality of components corresponding to the location (P1, P2) where heat is generated; determining whether the predicted second surface temperature is greater than or equal to a predetermined temperature; when the predicted second surface temperature is greater than or equal to the predetermined temperature, setting a target temperature and controlling the component to reduce the power consumption; wherein determining the first surface temperature (T1, T2) and determining the second surface temperature are based on a thermal resistance value and a thermal capacitance value for each of the plurality of components and the current consumption (q1, q2), and wherein the first surface temperature (T1, T2) is related to a current surface temperature of the electronic device and the second surface temperature is related to a future surface temperature of the electronic device.
A cooling device for an under-floor device for a vehicle, wherein the cooling device is configured to be arranged under a floor of the vehicle and is configured to cool down the under-floor device arranged under the floor of the vehicle by using a traveling wind (9a, 9b), as a cooling wind, generated as the vehicle travels, the cooling device comprising: a base plate to a rear surface side of which the under-floor device is attachable; a heat radiating unit attached to a front surface side of the base plate and configured to radiate heat conducted from the under-floor device via the base plate; a cover that surrounds the heat radiating unit and includes a first side opening provided in a first side surface of the cover and capable of causing the traveling wind (9a, 9b) to flow therein, and a second side opening provided in a second side surface that is opposite to the first side surface of the cover with respect to the travelling direction of the vehicle and capable of causing the traveling wind (9a, 9b, 10a, 10b) to flow out from the cover, wherein the first and second side surfaces of the cover are configured to face a traveling direction of the vehicle; and characterized in that the cooling device includes a guide plate configured to guide the traveling wind (9a, 9b) flowing in from the first side opening to the heat radiating unit by blocking at least part of a gap area between a surface connecting the first and second side surfaces of the cover and the heat radiating unit, and the guide plate is provided in a side gap area between the first side surface of the cover and the heat radiating unit. a base plate to a rear surface side of which the under-floor device is attachable; a heat radiating unit attached to a front surface side of the base plate and configured to radiate heat conducted from the under-floor device via the base plate; a cover that surrounds the heat radiating unit and includes a first side opening provided in a first side surface of the cover and capable of causing the traveling wind (9a, 9b) to flow therein, and a second side opening provided in a second side surface that is opposite to the first side surface of the cover with respect to the travelling direction of the vehicle and capable of causing the traveling wind (9a, 9b, 10a, 10b) to flow out from the cover, wherein the first and second side surfaces of the cover are configured to face a traveling direction of the vehicle; and characterized in that the cooling device includes a guide plate configured to guide the traveling wind (9a, 9b) flowing in from the first side opening to the heat radiating unit by blocking at least part of a gap area between a surface connecting the first and second side surfaces of the cover and the heat radiating unit, and the guide plate is provided in a side gap area between the first side surface of the cover and the heat radiating unit.
Polymer preparable by reaction of (a) dimer fatty acids with (b) at least one polyether of the general structural formula where R is a C 4 alkylene radical and n is selected accordingly such that said polyether has a number-average molecular weight, measured by means of gel permeation chromatography against a polyether methacrylate standard, eluent: tetrahydrofuran, of 450 to 2200 g/mol, components (a) and (b) are used in a molar ratio of 0.7/2.3 to 1.3/1.7, and the resulting polymer has a number-average molecular weight, measured by means of gel permeation chromatography against a polyether methacrylate standard, eluent: tetrahydrofuran, of 1500 to 5000 g/mol and an acid number < 10 mg KOH/g. (a) dimer fatty acids with (b) at least one polyether of the general structural formula where R is a C 4 alkylene radical and n is selected accordingly such that said polyether has a number-average molecular weight, measured by means of gel permeation chromatography against a polyether methacrylate standard, eluent: tetrahydrofuran, of 450 to 2200 g/mol, components (a) and (b) are used in a molar ratio of 0.7/2.3 to 1.3/1.7, and the resulting polymer has a number-average molecular weight, measured by means of gel permeation chromatography against a polyether methacrylate standard, eluent: tetrahydrofuran, of 1500 to 5000 g/mol and an acid number < 10 mg KOH/g.
A sunscreen composition suitable for providing protection against ultraviolet radiation contains at least three active ultraviolet radiation filter through which ultraviolet B radiation is permitted to enter the skin in an amount sufficient for the body to produce a healthful and disease-opposing quantity of vitamin D 3 and chemical precursors thereof, wherein the composition comprises avobenzone from 1 wt.% to 5 wt.%, terephthalylidene-3,3'-dicamphor-10,10'-disulfonic acid 1 wt.% to 10 wt.%, octocrylene 0.5 wt.% to 7 wt.%, oxybenzone 0.5 wt.% to 6 wt.%, octisalate 0.5 wt.% to 6 wt.%, sulisobenzone 0.5 wt.% to 6 wt.%, homosalate 0.5 wt.% to 7 wt.% and meradimate 0.5 wt.% to 5 wt.%.