mhurhangee/ep-ind-claims huggingface dataset:
A method for integrating presence data with contact data at a communication device, said communication device comprising a processing unit interconnected with an input device, a display device, and a communication interface, said method comprising: controlling, via said processing unit, said display device to provide a representation of said contact data in at least one of an e-mail application and a PIM (Personal Information Manager) application; and controlling, via said processing unit, said display device to provide a representation of said presence data adjacent said representation of said contact data in said in at least one of an e-mail application and a PIM (Personal Information Manager) application, said presence data associated with said contact data, wherein said representation of said presence data comprises an identification of a presence service originating said presence data. controlling, via said processing unit, said display device to provide a representation of said contact data in at least one of an e-mail application and a PIM (Personal Information Manager) application; and controlling, via said processing unit, said display device to provide a representation of said presence data adjacent said representation of said contact data in said in at least one of an e-mail application and a PIM (Personal Information Manager) application, said presence data associated with said contact data, wherein said representation of said presence data comprises an identification of a presence service originating said presence data.
Use of an exfoliating agent for viscosifying a nonaqueous base fluid, the nonaqueous base fluid comprising an organophilic clay, wherein the exfoliating agent comprises: glycerin carbonate; and an alkoxylated alcohol having the general formula: wherein R is a linear or branched alkyl from 2 to 18 carbon atoms or an aromatic radical having the structure: wherein R 1 is a branched or linear alkyl having from 2 to 18 carbon atoms, R 2 is H or CH 3, R 3 is H or CH 3, a is from 0 to 12, and b is from 1 to 12. glycerin carbonate; and an alkoxylated alcohol having the general formula: wherein R is a linear or branched alkyl from 2 to 18 carbon atoms or an aromatic radical having the structure: wherein R 1 is a branched or linear alkyl having from 2 to 18 carbon atoms, R 2 is H or CH 3, R 3 is H or CH 3, a is from 0 to 12, and b is from 1 to 12. R 1 is a branched or linear alkyl having from 2 to 18 carbon atoms, R 2 is H or CH 3, R 3 is H or CH 3, a is from 0 to 12, and b is from 1 to 12.
A method in a communication terminal for determining an indication of the number of transmission layers or data streams the communication terminal can distinguish in a multicarrier communication system, wherein communication in the multicarrier communication system is carried out over a plurality of subcarriers, wherein the communication terminal communicates with an interface station through which the communication station can access network services within a cell in a multiple-input-multiple-output (MIMO) configuration, the method comprising: receiving multicarrier symbols, the multicarrier symbols including pilot signals from multiple transmitting antennas of the interface station, wherein the pilot signals contain pilot data; estimating channel properties based on the received multicarrier symbols, wherein the channel properties include channel properties of at least one subcarrier carrying one of the pilot signals; equalizing the pilot data based on the channel properties; determining at least one pilot power and at least one interference power based on the equalized pilot data; and determining the indication based on the at least one pilot power and the at least one interference power. receiving multicarrier symbols, the multicarrier symbols including pilot signals from multiple transmitting antennas of the interface station, wherein the pilot signals contain pilot data; estimating channel properties based on the received multicarrier symbols, wherein the channel properties include channel properties of at least one subcarrier carrying one of the pilot signals; equalizing the pilot data based on the channel properties; determining at least one pilot power and at least one interference power based on the equalized pilot data; and determining the indication based on the at least one pilot power and the at least one interference power.
An air conditioning element with at least one heat exchanger, through which a medium flows, with at least one emitting element (13, 32) between which and the heat exchanger ambient air flows, which absorbs heat/cold, and with at least one heat-conducting element, which is in a heat-conducting connected with the emitting element (13, 32), and at least one pipe, which is at least partly overlapped by the heat-conducting element, which is thermally decoupled from the heat exchanger, characterized in that the pipe is connected to the heat exchanger and that the heat-conducting element is retained by a heat isolation, into which the pipe is at least partially embedded and which is provided on the back side of the heat-conducting element facing away from the emitting element (13, 32).
A wall formwork for concrete structures, comprising a basic body, an outer face configured as a formwork facing, and anchor holes for the detachable connection to other wall formworks, wherein the anchor holes are disposed with a uniform grid spacing (2, 3) relative to each other, wherein the wall formwork is dimensioned in such a way that the spacing of the anchor holes to the outer vertical and/or horizontal boundary of the wall formwork corresponds to half of the uniform grid spacing (2, 3), wherein the anchor holes are disposed axisymmetrically in the wall formwork, wherein the anchor holes are disposed on at least two parallel spaced-apart axes, and at least three anchor holes are provided along an axis, characterized in that the arrangement of the anchor holes in the wall formwork is designed in such a way that the anchor holes extend through a frame of the wall formwork.
A method for retrieving symbol timing information in a POLMUX system, comprising the steps of - polarisation splitting a received POLMUX signal into two received polmux signal components (x, y; X t, Y t) with orthogonal polarizations; and - rotating the orthogonal polmux signal components (x, y; X t, Y t) by at least three fixed rotation parameters (Rot0, Rot1, Rot2) obtaining at least three pairs of rotated signal components (X0, Y0; X1, Y1; X2, Y2) with different polarizations; characterized in that the method further comprises the steps of - squaring the obtained rotated signal components (X0, Y0; X1, Y1; X2, Y2) and determining a rotated signal component having the best phase information quality; - selecting both corresponding rotated squared signal components (X1, Y1) of the determined signal component for further processing; - deriving phase information (Phi_x, Phi_y) of both selected signal components (X1, Y1); and - combining the derived phase information (Phi_x, Phi_y) to achieve the symbol timing information for correcting the phase or calculating an optimized timed signal. - polarisation splitting a received POLMUX signal into two received polmux signal components (x, y; X t, Y t) with orthogonal polarizations; and - rotating the orthogonal polmux signal components (x, y; X t, Y t) by at least three fixed rotation parameters (Rot0, Rot1, Rot2) obtaining at least three pairs of rotated signal components (X0, Y0; X1, Y1; X2, Y2) with different polarizations; characterized in that the method further comprises the steps of - squaring the obtained rotated signal components (X0, Y0; X1, Y1; X2, Y2) and determining a rotated signal component having the best phase information quality; - selecting both corresponding rotated squared signal components (X1, Y1) of the determined signal component for further processing; - deriving phase information (Phi_x, Phi_y) of both selected signal components (X1, Y1); and - combining the derived phase information (Phi_x, Phi_y) to achieve the symbol timing information for correcting the phase or calculating an optimized timed signal.
Opening restrictor for a window or a door with a casement swivelable relative to a frame about at least one axis, wherein the opening restrictor consists of a base part that is attachable to the frame and on which a retaining arm is arranged swivelably via a swivel axis, has an engagement recess extending in longitudinal direction and a pass-through opening opening on one of its longitudinal sides into the engagement recess, on which a side wall of the engagement recess is intermittent, wherein the engagement recess has a snap-in apparatus in the side of the retaining arm that is facing away from the swivel axis, wherein the retaining arm can work together with a casement-side coupling bolt that is slidable into several switching positions on a longitudinal-slidable espagnolette, characterized in that the engagement recess is open, towards the edge, on the free end of the retaining arm and a blocking device, which allows access to the engagement recess and prevents an exiting from the engagement recess after the overcoming of the blocking device, is arranged on the pass-through opening.
A wireless communication method by a terminal (10, 200) or a chip in the terminal (10, 200), comprising: receiving first higher layer signaling from a base station (20, 200), wherein the first higher layer signaling configures a first time resource and a first frequency resource, and the first time resource and the first frequency resource are configured to be used for uplink transmission without scheduling; receiving second higher layer signaling from the base station (20, 200), wherein the second higher layer signaling indicates at least one candidate slot; and receiving downlink control information from the base station (20, 200), wherein the downlink control information indicates a format of a slot in the at least one candidate slot, and the format indicates a transmission direction of a symbol in the slot, wherein an uplink symbol in the slot is a time resource except the first time resource and that is configured to be used for the uplink transmission without scheduling. receiving first higher layer signaling from a base station (20, 200), wherein the first higher layer signaling configures a first time resource and a first frequency resource, and the first time resource and the first frequency resource are configured to be used for uplink transmission without scheduling; receiving second higher layer signaling from the base station (20, 200), wherein the second higher layer signaling indicates at least one candidate slot; and receiving downlink control information from the base station (20, 200), wherein the downlink control information indicates a format of a slot in the at least one candidate slot, and the format indicates a transmission direction of a symbol in the slot, wherein an uplink symbol in the slot is a time resource except the first time resource and that is configured to be used for the uplink transmission without scheduling.
A device for simultaneous laser welding, applied to simultaneous welding which is performed to an object comprising a base and a lens, comprising: a lifting cylinder; a first bearing plate, fixedly arranged above the lifting cylinder; a second bearing plate, arranged above the first bearing plate through a welding cylinder; a moving lower die, arranged above the second bearing plate, and configured to clamp the base; a fixing upper die, arranged above the moving lower die, and configured to clamp the lens; a laser source; and a light pipe; wherein, the laser source and the light pipe are configured above the fixing upper die, and the light pipe is positioned between the laser source and the lens; and wherein, the lifting cylinder drives the base to move to a position for welding through the first bearing plate and the second bearing plate, to make the lens attach onto the base; the light pipe shapes laser beam emitted from the laser source, and the laser beam passes through the lens and is focused on a welding region of the base for heating; meanwhile, the welding cylinder drives the moving lower die through the second bearing plate to press the base and the lens together. a lifting cylinder; a first bearing plate, fixedly arranged above the lifting cylinder; a second bearing plate, arranged above the first bearing plate through a welding cylinder; a moving lower die, arranged above the second bearing plate, and configured to clamp the base; a fixing upper die, arranged above the moving lower die, and configured to clamp the lens; a laser source; and a light pipe; wherein, the laser source and the light pipe are configured above the fixing upper die, and the light pipe is positioned between the laser source and the lens; and wherein, the lifting cylinder drives the base to move to a position for welding through the first bearing plate and the second bearing plate, to make the lens attach onto the base; the light pipe shapes laser beam emitted from the laser source, and the laser beam passes through the lens and is focused on a welding region of the base for heating; meanwhile, the welding cylinder drives the moving lower die through the second bearing plate to press the base and the lens together.
A computer-implemented method for providing a visual representation of material removal from an object by a cutting tool during a cut procedure, comprising: tracking consecutive poses of a cut trajectory of the cutting tool during the cut procedure; accumulating a plurality of the cut trajectories in a voxelized constructive solid geometry grid to produce an object space representation of the plurality of cut trajectories; performing a CSG operation on the plurality of cut trajectories and a model of the object; and displaying a 2D image of a result of the CSG operation at a display screen; wherein fragments of the 2D image are shaded based on the CSG operation. tracking consecutive poses of a cut trajectory of the cutting tool during the cut procedure; accumulating a plurality of the cut trajectories in a voxelized constructive solid geometry grid to produce an object space representation of the plurality of cut trajectories; performing a CSG operation on the plurality of cut trajectories and a model of the object; and displaying a 2D image of a result of the CSG operation at a display screen; wherein fragments of the 2D image are shaded based on the CSG operation.
Method of spatial high resolution determining, in one or more spatial dimensions, the position of an isolated molecule in a sample, the molecule being excitable with excitation light for emission of luminescence light, - wherein the excitation light is directed onto the sample with an intensity distribution having a zero point and intensity increasing regions which are adjoining the zero point on both sides in each of the spatial dimensions, - wherein the luminescence light emitted by the molecule is registered for each of different positions (A-D) of the zero point in the sample, and - wherein the position of the molecule in the sample is deduced from the intensities (I A -I D) of the luminescence light registered for the different positions (A-D) of the zero point, characterised in that the zero point is arranged at not more than n x 3 different positions (A-D) in the sample to deduce the position of the molecule in the n spatial dimensions from the intensities (I A -I D) of the luminescence light registered for the different positions (A-D) of the zero point, wherein the different positions (A-D) at which the zero point is arranged in the sample include, in each spatial dimension in which the position of the molecule is determined in the sample, one position (A-C) on both sides of a centre of a limited local area in the sample, in which the molecule is arranged. - wherein the excitation light is directed onto the sample with an intensity distribution having a zero point and intensity increasing regions which are adjoining the zero point on both sides in each of the spatial dimensions, - wherein the luminescence light emitted by the molecule is registered for each of different positions (A-D) of the zero point in the sample, and - wherein the position of the molecule in the sample is deduced from the intensities (I A -I D) of the luminescence light registered for the different positions (A-D) of the zero point,
An avionics switched Ethernet network, for communication of data, the network comprising: - a plurality of synchronized interconnected system nodes (N1-N3) each comprising: - an avionics module (A1-A3) arranged to periodically provide a set of data messages, each comprising a set of data variables related to avionics functions, - a network module (E1-E3) coupling the avionics module (A1-A3) to the network, said network module (E1-E3) comprising a network interface unit (15A-15C) arranged to provide means for transmissions of data packets comprising a number of said set of data messages from said avionics module (A1-A3), wherein the network module (E1-E3) of each system node (N1-N3) comprise a transmission control unit arranged to control the network interface unit (15A-15C) to perform scheduled transmissions of said data packets, wherein said transmission control unit is provided with access to memory means comprising scheduling information relating to a timing table comprising a plurality of time-slots (S1-S8) of predetermined duration within at least one periodically repeating communication time frame, characterized in that each of said plurality of time-slots (S1-S8) is statically allocated a predetermined number of data packets, each comprising a predetermined subset of data messages from said set of data messages, wherein each node (N1-N3) is permitted to perform transmissions of one or more data packets during that time-slot. - a plurality of synchronized interconnected system nodes (N1-N3) each comprising: - an avionics module (A1-A3) arranged to periodically provide a set of data messages, each comprising a set of data variables related to avionics functions, - a network module (E1-E3) coupling the avionics module (A1-A3) to the network, said network module (E1-E3) comprising a network interface unit (15A-15C) arranged to provide means for transmissions of data packets comprising a number of said set of data messages from said avionics module (A1-A3),
An integrated device package comprising: a die; and a package substrate coupled to the die, the package substrate comprising: at least one dielectric layer (220, 222); a magnetic core in the at least one dielectric layer; a first protective ring; and a first inductor comprising a plurality of first interconnects (230-236; 271-276), the first inductor positioned in the package substrate to at least partially surround the magnetic core, wherein the first protective ring comprises at least one interconnect (234, 274) from the plurality of first interconnects of the first inductor, wherein the first protective ring surrounds the magnetic core and wherein the first protective ring is more resistant to laser light than the at least one dielectric. a die; and a package substrate coupled to the die, the package substrate comprising: at least one dielectric layer (220, 222); a magnetic core in the at least one dielectric layer; a first protective ring; and a first inductor comprising a plurality of first interconnects (230-236; 271-276), the first inductor positioned in the package substrate to at least partially surround the magnetic core, wherein the first protective ring comprises at least one interconnect (234, 274) from the plurality of first interconnects of the first inductor, wherein the first protective ring surrounds the magnetic core and wherein the first protective ring is more resistant to laser light than the at least one dielectric. at least one dielectric layer (220, 222); a magnetic core in the at least one dielectric layer; a first protective ring; and a first inductor comprising a plurality of first interconnects (230-236; 271-276), the first inductor positioned in the package substrate to at least partially surround the magnetic core, wherein the first protective ring comprises at least one interconnect (234, 274) from the plurality of first interconnects of the first inductor, wherein the first protective ring surrounds the magnetic core and wherein the first protective ring is more resistant to laser light than the at least one dielectric.
Process for dyeing keratin fibres in which a mixture is applied to the said fibres, this mixture being obtained from: • a dye composition comprising at least one oxidation dye precursor, and • an oxidizing composition comprising at least one chemical oxidizing agent, • at least one of the compositions being dispensed from a pressurized container, • the mixture of the two compositions comprising at least one nonionic oxyalkylenated saturated or unsaturated C 8 -C 40 fatty acid amide. • a dye composition comprising at least one oxidation dye precursor, and • an oxidizing composition comprising at least one chemical oxidizing agent, • at least one of the compositions being dispensed from a pressurized container, • the mixture of the two compositions comprising at least one nonionic oxyalkylenated saturated or unsaturated C 8 -C 40 fatty acid amide.
Profiled clamp (10, 26, 50) having a profiled band, and an annular sealing element, wherein the profiled band has two tensioning heads (14, 16) which are connected to one another via a tensioning element (18, 28), wherein the profiled band has at least one radially outer positioning aid (24, 34, 54) which has a spring elastic bearing portion (38, 70) for clinging to a shape feature (32, 56) of a line end (30, 52) which can be coupled to the profiled clamp (10, 26, 50), the positioning aid being arranged with an axial offset to the profiled band and extending from the profiled band toward the line end by virtue of the axial offset, wherein the bearing portion (38, 70) extends obliquely to a circumferential direction (u) of the profiled band, wherein the bearing portion (38, 70) is bent or kinked radially inwardly and/or is bent or kinked in the axial direction.
A vehicle door trim coupling device for combining a first sub trim made of a thermoplastic resin material formed with a protrusion and a second sub trim made of a thermoplastic resin material formed with an accommodating groove for accommodating the protrusion of the first sub trim, the vehicle door trim coupling device comprising: a heat supplier configured to melt a part of the protrusion by radiant heat; and a molding part configured to press-mold the melted protrusion; wherein the heat supplier includes: a body; a heating hole formed at a lower end of the body and accommodating a part of the protrusion; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole, and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C. a heat supplier configured to melt a part of the protrusion by radiant heat; and a molding part configured to press-mold the melted protrusion; wherein the heat supplier includes: a body; a heating hole formed at a lower end of the body and accommodating a part of the protrusion; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole, and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C. a body; a heating hole formed at a lower end of the body and accommodating a part of the protrusion; and a heater formed spaced apart from a circumferential surface of the protrusion at a predetermined distance by being disposed inside of the heating hole, and configured to emit radiant heat, wherein the heater takes a shape of a continuously curved flat plate, and wherein a temperature of the heater is 200°C ∼ 800°C.