mhurhangee/ep-ind-claims huggingface dataset:
An equalizer for a multi-carrier signal for carrying out equalization adapted to each carrier or group of carriers, comprising means for inputting the multi-carrier signal and Fourier transforming the multi-carrier signal, means for obtaining difference terms representing changes of the input multi-carrier signal over time and a for performing a set of filtering processes, with a filtering process being performed for each carrier, the filtering processes being adapted on a per-carrier or per-group of carriers basis for filtering the difference terms and an output of the Fourier transformation, to output frequency domain equalized signals, characterised in that decimation is applied to a sequence of the difference terms input to at least some of the filtering processes.
An assembly of an electric cable and of a cable terminal, the cable being provided with an outer insulation sheath and with at least one conductive strand, and having a sheathed portion and a stripped portion, the assembly further having a seal with a sealing portion and a shrink-fitting portion, the terminal having shrink-fitting wings, and wherein the sealing portion of the seal is assembled on the sheathed portion of the cable, and the shrink-fitting portion of the seal is assembled directly on the stripped portion of the cable, and the shrink-fitting wings are fully assembled on the shrink-fitting portion of the seal and characterized in that the shrink-fitting portion has a shoulder arranged to abut on the sheathed portion of the cable. the assembly further having a seal with a sealing portion and a shrink-fitting portion, the terminal having shrink-fitting wings, and wherein the sealing portion of the seal is assembled on the sheathed portion of the cable, and the shrink-fitting portion of the seal is assembled directly on the stripped portion of the cable, and the shrink-fitting wings are fully assembled on the shrink-fitting portion of the seal and characterized in that the shrink-fitting portion has a shoulder arranged to abut on the sheathed portion of the cable.
An electronic device, wherein the electronic device comprises a frame and an antenna structure, the frame comprises at least a bottom frame and a first side frame, wherein one end of the bottom frame is connected to the first side frame; a first slot and a third slot are provided in the bottom frame, a distance from the first slot to the first side frame is smaller than a distance from the third slot to the first side frame; a second slot is provided in the first side frame; the antenna structure comprises a first radiation part, a first connection part and a first feed-in part, wherein a part of the frame between the first slot and the second slot forms the first radiation part; the first connection part is located on the first radiation part and located on the first side frame; the first feed-in part is located on the first radiation part; wherein the antenna structure is configured to simultaneously generate a first resonance and a second resonance when a first signal is fed into the first radiation part via the first feed-in part; a part of the frame between the first slot and the third slot is configured to form a first parasitic stub of the first radiation part; and the antenna structure is configured to generate a third resonance based on the first parasitic stub when the first signal is fed into the first radiation part via the first feed-in part; and wherein the third resonance is different from the first resonance and the second resonance. the antenna structure is configured to simultaneously generate a first resonance and a second resonance when a first signal is fed into the first radiation part via the first feed-in part; a part of the frame between the first slot and the third slot is configured to form a first parasitic stub of the first radiation part; and the antenna structure is configured to generate a third resonance based on the first parasitic stub when the first signal is fed into the first radiation part via the first feed-in part; and wherein the third resonance is different from the first resonance and the second resonance.
Casting system for casting of copper melts, in particular for casting of phosphorus-containing copper melts with a phosphorus content of greater than 80 ppm, wherein the casting system has at least two pipe-shaped and/or partial-pipe-shaped ceramic transport apparatuses (101, 103, 105) with in each case one pouring port and one outlet port, characterised in that copper melt poured into the pouring ports can be transferred by means of the respective ceramic transport apparatus to the respective outlet port and the respective ceramic transport apparatus has at least a ceramic content of 80.0 wt.% and an electrical conductivity additive, such that the respective ceramic transport apparatus is electrically conductive, and wherein in particular the respective ceramic transport apparatus is free of iron or iron compounds, wherein the respective ceramic transport apparatus has an upper electrical conductor receiver and/or a lower electrical conductor receiver and the two ceramic transport apparatuses are connected in an electrically conductive manner with one another by means of an electrical conducting connection respectively to the upper electrical conductor receiver or respectively to the lower electrical conductor receiver.
A method for performing ranging at a Machine to Machine, M2M, device in a wireless communication system, the method comprising: receiving an Advanced Air Interface-System Configuration Descriptor, AAI-SCD, message including a M2M ranging indicator indicating M2M ranging configuration, wherein the M2M ranging configuration is one of normal ranging by using ranging resources that are not dedicated for M2M, M2M dedicated ranging by using dedicated ranging resources for M2M or M2M network reentry prohibition; and performing ranging according to the M2M ranging configuration, when the M2M ranging configuration does not prohibit network reentry, characterized in that when the M2M ranging configuration indicates M2M dedicated ranging, the M2M device decodes Secondary-SuperFrame Header SubPacket 3 Information Element, S-SFH SP3 IE. receiving an Advanced Air Interface-System Configuration Descriptor, AAI-SCD, message including a M2M ranging indicator indicating M2M ranging configuration, wherein the M2M ranging configuration is one of normal ranging by using ranging resources that are not dedicated for M2M, M2M dedicated ranging by using dedicated ranging resources for M2M or M2M network reentry prohibition; and performing ranging according to the M2M ranging configuration, when the M2M ranging configuration does not prohibit network reentry,
A semiconductor device comprising: a first memory module, a second memory module and a third memory module, and each of the memory modules having a memory cell array including memory cells, and having a first mode and a second mode set by a control signal; a first control signal line coupled in parallel with the first memory module and the second memory module to transmit the control signal to the first and second memory modules; a second control signal line coupled with the third memory module and a first wiring of the first memory module to transmit the control signal to the third memory module; the first wiring being disposed in the first memory module and between the first control signal line and the second control signal line to transmit the control signal from the first control signal line to the second control signal line via the first wiring; the first mode consuming less electric power than the second mode; and the first memory module having a greater storage capacity than the second memory module. a first memory module, a second memory module and a third memory module, and each of the memory modules having a memory cell array including memory cells, and having a first mode and a second mode set by a control signal; a first control signal line coupled in parallel with the first memory module and the second memory module to transmit the control signal to the first and second memory modules; a second control signal line coupled with the third memory module and a first wiring of the first memory module to transmit the control signal to the third memory module; the first wiring being disposed in the first memory module and between the first control signal line and the second control signal line to transmit the control signal from the first control signal line to the second control signal line via the first wiring; the first mode consuming less electric power than the second mode; and the first memory module having a greater storage capacity than the second memory module.
In a variable cam timing assembly for an internal combustion engine of a motor vehicle having a cam phaser connected between an inner camshaft and an outer camshaft of a concentric camshaft, the variable cam timing assembly characterized in that: a flexible coupling connected between the cam phaser and at least one of the inner and outer camshafts (12a, 12b) of the concentric camshaft for transmitting rotational torque, the flexible coupling having a single unitary flexible body permitting adjustment for perpendicularity and axial misalignment, while maintaining a torsionally stiff coupling between the cam phaser and at least one of the inner and outer camshafts (12a, 12b) of the concentric camshaft, wherein the single unitary flexible body has a radially-extending non-planar shape with a peripheral surface. a flexible coupling connected between the cam phaser and at least one of the inner and outer camshafts (12a, 12b) of the concentric camshaft for transmitting rotational torque, the flexible coupling having a single unitary flexible body permitting adjustment for perpendicularity and axial misalignment, while maintaining a torsionally stiff coupling between the cam phaser and at least one of the inner and outer camshafts (12a, 12b) of the concentric camshaft, wherein the single unitary flexible body has a radially-extending non-planar shape with a peripheral surface.
Kit of parts for producing an emulsifiable pesticide solution comprising: (a) a water miscible organic solvent selected from the list of a glycol ether, a glycerol formal, dimethylsulfoxide, gamma-butyrolactone or mixtures thereof, (b) an alkoxylated alcohol; and (c) a pesticidal active ingredient, characterized in that, the alkoxylated alcohol is of formula, CH 3 -(CH 2) x -CH 2 -O-(CH 2 -CH(CH 3)-O) z -(CH 2 -CH 2 -O) y -H wherein x is from 10 to 13, y is from 10 to 60; and z is from 2 to 45; and the minimum number average molecular weight of the alkoxylated alcohol, expressed in atomic mass units, is at least 1000. (a) a water miscible organic solvent selected from the list of a glycol ether, a glycerol formal, dimethylsulfoxide, gamma-butyrolactone or mixtures thereof, (b) an alkoxylated alcohol; and (c) a pesticidal active ingredient,
A fiber-optic acoustic sensing device, comprising a jacket delineating a cavity and a fiber-optic sensor, said fiber-optic sensor comprising an optical fiber and a holding device integral with the optical fiber, the holding device constituting a rigid body passed through by the optical fiber and fixed to the jacket at connection points, the jacket being passed through by the optical fiber between two points, the cavity comprising a mixed fluid comprising a liquid-based fluid and microspheres, characterized in that each microsphere is a micron or submicron sphere filled with gas and the rate of microspheres in the cavity relative to the volume of liquid is predetermined and a function of the target compressibility of the mixed fluid and the volume of the cavity delineated by the jacket, the target compressibility being less than a maximum compressibility of the mixed fluid, the maximum compressibility of the mixed fluid for a maximum target immersion of the device being a function of the total volume of the mixed fluid inside the jacket, of the volume of mixed fluid contained in the jacket and outside the cavity, and the pressure at said maximum target immersion.
Motorvehicle comprising: - a rear engine; - a cooling system of the rear engine, wherein the cooling system comprises a radiator; - a motorvehicle body (110,120) supporting the rear engine, wherein the motorvehicle body extends along a longitudinal axis (L-L) and comprises a front portion and a rear portion, the rear engine being arranged in said rear portion; - a driver's seat arranged in the front portion; - a passengers' seat arranged in the rear portion; characterized in that the radiator is arranged, along the longitudinal axis (L-L), between the front portion and the rear engine and under said passengers' seat. - a rear engine; - a cooling system of the rear engine, wherein the cooling system comprises a radiator; - a motorvehicle body (110,120) supporting the rear engine, wherein the motorvehicle body extends along a longitudinal axis (L-L) and comprises a front portion and a rear portion, the rear engine being arranged in said rear portion; - a driver's seat arranged in the front portion; - a passengers' seat arranged in the rear portion;
Household appliance, in particular dish washer, washing machine, condensation laundry dryer or steam cooking oven, comprising a fluid system containing a running and/or stationary fluid or fluid mixture and a radiation detecting device for detecting thermal radiation from the fluid or fluid mixture to determine the temperature of the fluid or fluid mixture, wherein the fluid system comprises at least one transmissive device (18; 22) which is arranged between the radiation detecting device and the fluid or fluid mixture and which is made from a material transmissive for the thermal radiation of the fluid or fluid mixture, in particular a glass or plastics or a polymer material, characterised in that the at least one transmissive device is a pipe or a pipe section of the fluid system
A package for tobacco related articles comprising at least a first compartment and a second compartment, wherein the at least first compartment and second compartment are coupled to each other and the compartments are slidable with respect to each other between a first position and a second position, and wherein in the first position of the compartments (11, 12), at least a first access opening of the first compartment is accessible, and in the second position of the compartments (11, 12), at least the first access opening of the first compartment is inaccessible, wherein the first compartment and the second compartment each comprise a front wall (16, 17) and a rear wall (32, 33), which are opposite to each other with respect to an interior (37, 39) of the compartments (11, 12), and wherein the first compartment and the second compartment are coupled to each other at their rear walls (32, 33), wherein the package further comprises a support structure having a deflecting member which is surrounded by a conveyer belt, wherein the conveyer belt is coupled to the first compartment and to the second compartment, wherein the first access opening for providing access to the interior of the first compartment is arranged on the rear wall of the first compartment characterized in that in the first position of the compartments (11, 12), a second access opening of the second compartment is accessible and in the second position of the compartments (11, 12), the second access opening of the second compartment is inaccessible, and the second access opening for providing access to the interior of the second compartment is arranged on the rear wall of the second compartment, wherein the first compartment and the second compartment comprise a hinged lid (13, 14) for closing the access opening, which is arranged on a lateral side of the first compartment and the second compartment, respectively, wherein the hinged lids (13, 14) are configured to be swiveled around a hinge line (15, 51 a) for opening an closing each of the access openings (38, 31a), and wherein the hinge lines (15, 51 a) are arranged on the front wall (16, 17) of the compartments (11, 12).
Method for dispensing multiple portions of a fluid, the fluid being stored in a container comprising a port and a flexible dispensing tube having an inlet and an outlet, the inlet being integrally sealed to the port and a valve being mounted in the outlet, the valve comprising a delivery block having an input port for receiving fluid exiting the tube outlet and an internal channel beginning at the input port and terminating 10 at least one output port an elastomeric membrane for enveloping the delivery block such that a portion of the elastomeric membrane covers the output port and the downstream end of the elastomeric membrane forms the valve outlet, the method comprising: a compression step during which a first portion of the flexible dispensing tube is compressed such that the fluid is compressed and forced downstream through the internal channel of the valve delivery block and the compressed fluid extends the elastomeric membrane at the output port and is able to flow between the elastomeric membrane and the delivery block and reach the valve outlet; a termination of said compression step; and a further step performed at the end of the compression step comprising releasing the pressure between the first tube portion and the valve. a compression step during which a first portion of the flexible dispensing tube is compressed such that the fluid is compressed and forced downstream through the internal channel of the valve delivery block and the compressed fluid extends the elastomeric membrane at the output port and is able to flow between the elastomeric membrane and the delivery block and reach the valve outlet; a termination of said compression step; and a further step performed at the end of the compression step comprising releasing the pressure between the first tube portion and the valve.
A magnetically shielded vacuum pump comprising: a) a pump envelope surrounding a rotor cavity of the vacuum pump; b) an outer magnetic shield circumferentially encasing at least a portion of the pump envelope; and c) a longitudinally extending circumferential channel between the encased portion of the pump envelope and the outer magnetic shield, characterised in that the channel comprises an air inlet and an air outlet; wherein, in use, air flows through the channel. a) a pump envelope surrounding a rotor cavity of the vacuum pump; b) an outer magnetic shield circumferentially encasing at least a portion of the pump envelope; and c) a longitudinally extending circumferential channel between the encased portion of the pump envelope and the outer magnetic shield, characterised in that the channel comprises an air inlet and an air outlet; wherein, in use, air flows through the channel.
A separator having a separator drum with a vertical rotational axis and a feed line for a centrifuged material which is to be processed and having a drive spindle and having a drive device for a separator drum a. wherein the drive spindle can be rotated by means of a motor (20, 21), designed as a direct drive, which has a stator and a rotor, b. wherein the drive device is arranged in a drive housing which has a motor housing section, characterized in that c. the motor housing section is designed in an explosion-proof, pressure-tightly encapsulated type of construction and the motor together with the stator and the rotor are accommodated in the motor housing section, d. the motor housing section in an explosion-proof type of construction is designed as a section which is stationary during operation of the centrifuge and is adjacent to a part (2, 8) which rotates during operation, wherein at least one gap (27, 27') is formed between this part and the motor housing section, and e. the motor housing section has a cover section open on top which is adjacent to the rotating part, so that the gap (27, 27') is formed between the cover part and the rotating part (2, 8). a. wherein the drive spindle can be rotated by means of a motor (20, 21), designed as a direct drive, which has a stator and a rotor, b. wherein the drive device is arranged in a drive housing which has a motor housing section, characterized in that c. the motor housing section is designed in an explosion-proof, pressure-tightly encapsulated type of construction and the motor together with the stator and the rotor are accommodated in the motor housing section, d. the motor housing section in an explosion-proof type of construction is designed as a section which is stationary during operation of the centrifuge and is adjacent to a part (2, 8) which rotates during operation, wherein at least one gap (27, 27') is formed between this part and the motor housing section, and e. the motor housing section has a cover section open on top which is adjacent to the rotating part, so that the gap (27, 27') is formed between the cover part and the rotating part (2, 8).
Method for drying hygroscopic material, comprising the steps: a) supplying hygroscopic material in a drying chamber comprising a drying medium, wherein the hygroscopic material is wood, peat or biomass, b) supplying energy to the drying chamber, c) detecting the drying medium's dry bulb temperature in the drying chamber and providing an output signal for the detected dry bulb temperature, d) detecting the drying medium's wet bulb temperature in the drying chamber and providing an output signal for the detected wet bulb temperature, e) detecting the temperature of the hygroscopic material's surface layer and providing an output signal for the detected surface temperature, characterized by the step: f) utilizing the output signal for the detected dry bulb temperature, the output signal for the detected wet bulb temperature and the output signal for the detected surface temperature as an indication of the hygroscopic material's surface moisture content for regulating the properties of the drying medium, wherein at the beginning of the drying process, if the surface is saturated with moisture, the surface temperature of the hygroscopic material corresponds to the wet bulb temperature of the drying medium, wherein, as drying proceeds, the surface temperature more and more reaches the dry bulb temperature of the drying medium, and the surface of the hygroscopic material reaches an equilibrium surface moisture content when the surface has a temperature equal to the drying medium's dry bulb temperature, wherein a measure of the surface moisture content of the hygroscopic material is obtained from the relation between the surface temperature and the dry bulb temperature, and the relation between the surface temperature and the wet bulb temperature, and wherein said measure of the surface moisture content of the hygroscopic material is used for the regulating of the properties of the drying medium and for predicting the end of the drying process before it happens. a) supplying hygroscopic material in a drying chamber comprising a drying medium, wherein the hygroscopic material is wood, peat or biomass, b) supplying energy to the drying chamber, c) detecting the drying medium's dry bulb temperature in the drying chamber and providing an output signal for the detected dry bulb temperature, d) detecting the drying medium's wet bulb temperature in the drying chamber and providing an output signal for the detected wet bulb temperature, e) detecting the temperature of the hygroscopic material's surface layer and providing an output signal for the detected surface temperature, f) utilizing the output signal for the detected dry bulb temperature, the output signal for the detected wet bulb temperature and the output signal for the detected surface temperature as an indication of the hygroscopic material's surface moisture content for regulating the properties of the drying medium,