mhurhangee/ep-ind-claims huggingface dataset:
A method for producing pouched smokeless tobacco products for oral use, said method comprising: - providing an initial tobacco preparation comprising divided tobacco material, optionally salt, optionally pH adjuster and optionally one or more additional ingredients, said initial tobacco preparation having a water content of at most 15% w/w; - heating the initial tobacco preparation having a water content of at most 15% w/w to a temperature within the range of from 70°C to 170°C for a time period within the range of from 10 minutes to 72 hours to provide a heat-treated tobacco preparation, said heating being the first heating step of the initial tobacco preparation; - providing a smokeless tobacco composition comprising said heat-treated tobacco preparation; and - enclosing portions of said smokeless tobacco composition in saliva-permeable pouch material thereby providing pouched smokeless tobacco products. - providing an initial tobacco preparation comprising divided tobacco material, optionally salt, optionally pH adjuster and optionally one or more additional ingredients, said initial tobacco preparation having a water content of at most 15% w/w; - heating the initial tobacco preparation having a water content of at most 15% w/w to a temperature within the range of from 70°C to 170°C for a time period within the range of from 10 minutes to 72 hours to provide a heat-treated tobacco preparation, said heating being the first heating step of the initial tobacco preparation; - providing a smokeless tobacco composition comprising said heat-treated tobacco preparation; and - enclosing portions of said smokeless tobacco composition in saliva-permeable pouch material thereby providing pouched smokeless tobacco products.
A transmission method for a broadcast/multicast system comprising: generating a first precoded signal z1 and a second precoded signal z2 for each of a plurality of N slots, by performing a respective one of N precoding schemes each corresponding to one matrix among N matrices F[i] on a first modulated signal s1 and a second modulated signal s2, wherein N is an odd integer 3 or greater and variable i denotes an integer no less than 0 and no more than N-1; and transmitting the first precoded signal z1 and the second precoded signal z2 using two antennas in the same frequency at the same time, characterized in that the first precoded signal z1 and the second precoded signal z2 satisfy (z1, z2) T = F[i] (s1, s2) T, the one precoding scheme is changed regularly among the N precoding schemes, and the N matrices F[i] being expressed as: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x + 1 − θ 21 x + 1 e j θ 11 x − θ 21 x = e j 2 π N for ∀ x x = 0, 1, 2, ⋯, N − 2 generating a first precoded signal z1 and a second precoded signal z2 for each of a plurality of N slots, by performing a respective one of N precoding schemes each corresponding to one matrix among N matrices F[i] on a first modulated signal s1 and a second modulated signal s2, wherein N is an odd integer 3 or greater and variable i denotes an integer no less than 0 and no more than N-1; and transmitting the first precoded signal z1 and the second precoded signal z2 using two antennas in the same frequency at the same time, characterized in that the first precoded signal z1 and the second precoded signal z2 satisfy (z1, z2) T = F[i] (s1, s2) T, the one precoding scheme is changed regularly among the N precoding schemes, and the N matrices F[i] being expressed as: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x + 1 − θ 21 x + 1 e j θ 11 x − θ 21 x = e j 2 π N for ∀ x x = 0, 1, 2, ⋯, N − 2
A system for coupling a stylus to a computing device, the system comprising: a computing device having a display; the computing device configured to communicate with the stylus in accordance with a first wireless protocol and via at least one communication channel; the at least one communication channel being associated with a second wireless protocol, the computing device executing computer-executable instructions to: receive a stylus wireless protocol identifier in a first signal from the stylus via the at least one communication channel upon a tip of the stylus being brought proximate to the display of the computing device; based on receiving the stylus wireless protocol identifier, transmit a second signal including a wireless protocol identifier of the computing device and a signing key to the stylus via the at least one communication channel associated with the second wireless protocol, whereby the computing device is coupled to the stylus to listen for signals from the stylus; and based on receiving a third signal from the coupled stylus to the computing device via the first wireless protocol, performing an operation on the computing device based on the third signal, the third signal indicating user input to the stylus; wherein the performing an operation based on the third signal includes launching an application on the computing device prior to an optional pairing of the coupled stylus to the computing device. receive a stylus wireless protocol identifier in a first signal from the stylus via the at least one communication channel upon a tip of the stylus being brought proximate to the display of the computing device; based on receiving the stylus wireless protocol identifier, transmit a second signal including a wireless protocol identifier of the computing device and a signing key to the stylus via the at least one communication channel associated with the second wireless protocol, whereby the computing device is coupled to the stylus to listen for signals from the stylus; and based on receiving a third signal from the coupled stylus to the computing device via the first wireless protocol, performing an operation on the computing device based on the third signal, the third signal indicating user input to the stylus; wherein the performing an operation based on the third signal includes launching an application on the computing device prior to an optional pairing of the coupled stylus to the computing device.
A method for Multiple User-Multiple Input Multiple Output transmission in a wireless communication system, comprising: re-allocating, by a base station, R frequency resources belonging to resource blocks RBs of at least one sub-frame, which are allocated to N DeModulation Reference Signals thereafter referred to as DMRS ports, which are allocated to N first data flows used by N first UEs or less than N first UEs, uniformly to w*N DMRS ports which are allocated to M second data flows used by K second UEs, wherein the w*N DMRS ports are, alternatively and in turn, allocated to uniformly occupy the same R frequency resources that were first allocated to the N DMRS ports; wherein w is an integer greater than 1, R is an integer greater than w or equal to w, and M=w*N; and designating, by the base station, a DMRS port for each of the K second UEs involved in joint scheduling according to the w*N DMRS ports, and sending (102, 1203) information of the designated DMRS port via a downlink control signaling to each of the K second UEs, where K is lower than M or equal to M. re-allocating, by a base station, R frequency resources belonging to resource blocks RBs of at least one sub-frame, which are allocated to N DeModulation Reference Signals thereafter referred to as DMRS ports, which are allocated to N first data flows used by N first UEs or less than N first UEs, uniformly to w*N DMRS ports which are allocated to M second data flows used by K second UEs, wherein the w*N DMRS ports are, alternatively and in turn, allocated to uniformly occupy the same R frequency resources that were first allocated to the N DMRS ports; wherein w is an integer greater than 1, R is an integer greater than w or equal to w, and M=w*N; and designating, by the base station, a DMRS port for each of the K second UEs involved in joint scheduling according to the w*N DMRS ports, and sending (102, 1203) information of the designated DMRS port via a downlink control signaling to each of the K second UEs, where K is lower than M or equal to M.
Method for producing an optoelectronic semiconductor component, comprising: - providing a semiconductor chip (202, 404) in a wafer assemblage with an active side for emitting primary radiation and a contact connector arranged on the active side; - applying a coupling element on the active side; and - applying a luminescence conversion element for converting some of the primary radiation into secondary radiation on the coupling element, characterized in that the luminescence conversion element is selected according to a colour locus of the semiconductor chip (202, 404), moreover comprising: - ascertaining the colour loci of the semiconductor chips (202, 204), - singulating the semiconductor chips (202, 204) before or after ascertaining the colour loci, - sorting the semiconductor chips (202, 204) according to the colour locus; and - arranging the semiconductor chips (202, 204) in an artificial wafer on the basis of the colour loci of the semiconductor chips (202, 204) in such a way that a group of semiconductor chips (202, 204) is assembled in each case, said semiconductor chips having a similar colour locus within predetermined tolerances, and also - applying a solder ball on the contact connector in such a way that the solder ball is not covered by the subsequently applied coupling layer, wherein the luminescence conversion element has an opening in the process that leaves the solder ball exposed after the luminescence conversion element has been applied. - providing a semiconductor chip (202, 404) in a wafer assemblage with an active side for emitting primary radiation and a contact connector arranged on the active side; - applying a coupling element on the active side; and - applying a luminescence conversion element for converting some of the primary radiation into secondary radiation on the coupling element, - ascertaining the colour loci of the semiconductor chips (202, 204), - singulating the semiconductor chips (202, 204) before or after ascertaining the colour loci, - sorting the semiconductor chips (202, 204) according to the colour locus; and - arranging the semiconductor chips (202, 204) in an artificial wafer on the basis of the colour loci of the semiconductor chips (202, 204) in such a way that a group of semiconductor chips (202, 204) is assembled in each case, said semiconductor chips having a similar colour locus within predetermined tolerances, - applying a solder ball on the contact connector in such a way that the solder ball is not covered by the subsequently applied coupling layer, wherein the luminescence conversion element has an opening in the process that leaves the solder ball exposed after the luminescence conversion element has been applied.
A refrigerator comprising: a body provided with a storage compartment; a door (11a, 12a) provided to a front of the body; and a water filter cartridge installed in the door, wherein the water filter cartridge comprises: a case filled with an ion exchange resin; an introduction port positioned at an upper portion of the case to allow water to be introduced therethrough; and a discharge port positioned at a lower portion of the case to allow the water having passed through the ion exchange resin to be discharged therethrough, characterized in that the discharge port comprises: a first slit defining member to define first slits on a bottom surface of the case to allow the water introduced through the introduction port to be discharged through the first slits; and a second slit defining member disposed at an upper side of the first slit defining member to define second slits which create a mesh shape with the first slits, wherein a width of the first slit defining member differs from a width of the second slit defining member; wherein the width of the second slit defining member is greater than the width of the first slit defining member, wherein the first slit defining member and the second slit defining member are formed in a bar shape, the first slit defining member and the second slit defining member are disposed orthogonal to each other. a body provided with a storage compartment; a door (11a, 12a) provided to a front of the body; and a water filter cartridge installed in the door, a case filled with an ion exchange resin; an introduction port positioned at an upper portion of the case to allow water to be introduced therethrough; and a discharge port positioned at a lower portion of the case to allow the water having passed through the ion exchange resin to be discharged therethrough, a first slit defining member to define first slits on a bottom surface of the case to allow the water introduced through the introduction port to be discharged through the first slits; and a second slit defining member disposed at an upper side of the first slit defining member to define second slits which create a mesh shape with the first slits,
Heating article comprising a substrate having two opposite surfaces (21, 22), at least one of which is opaque, and a heat-stable coating arranged on said opaque surface, characterised in that said heat-stable coating comprises: - an at least two-colour decoration having continuous tones and being provided in the form of a continuous or discontinuous layer, said decoration reproducing very precisely a given decoration and comprising all of the nuances between the lightest tones and the darkest tones without allowing points to appear, - an opaque sub-layer made from a fluorocarbon resin with a PTFE base or from a sol-gel material that covers one of the surfaces of said substrate, and/or - a continuous and transparent finishing layer with a PTFE base or of a sol-gel material, said finishing layer being arranged on the decoration or arranged between the substrate or the sub-layer where applicable and the decoration, and in that said article has been cured at a temperature of more than 300 °C. - an at least two-colour decoration having continuous tones and being provided in the form of a continuous or discontinuous layer, said decoration reproducing very precisely a given decoration and comprising all of the nuances between the lightest tones and the darkest tones without allowing points to appear, - an opaque sub-layer made from a fluorocarbon resin with a PTFE base or from a sol-gel material that covers one of the surfaces of said substrate, and/or - a continuous and transparent finishing layer with a PTFE base or of a sol-gel material, said finishing layer being arranged on the decoration or arranged between the substrate or the sub-layer where applicable and the decoration, and
A process for manufacturing a hollow glass product employing at least one mold comprising two mold halves (100, 200) closed up at one end on a ring mold and closed off at the other end by a top, which process includes the greasing of at least one of said molds in the closed-up position of said mold halves (100, 200) on said ring mold, but said top not closing up said other end, characterized in that the greasing includes a spraying by a spray tube moving in the cavity of the mold, and in that the spray tube is carried by a robot that can move alongside the blank mold of an IS machine.
Ultrasonic measuring device, comprising: - an ultrasonic array configured to detect ultrasonic signals, and - a housing comprising an acoustic window portion and a housing wall, whereby the ultrasonic array is arranged in the housing in acoustic contact with the acoustic window portion, wherein - the acoustic window portion is configured for an adherence to a surface of the object to be examined, characterised in that - the housing forms an electromagnetic shielding which is effective against fields in a magnetic resonance tomography device, and - the ultrasonic measuring device has an actuator device which is configured for the adjustment and/or movement of the ultrasonic array relative to an object to be examined, wherein - the actuator device comprises a piezoelectric ring motor using which the ultrasonic array can be moved relative to the acoustic window portion, and - the ultrasonic array, the housing and the piezoelectric ring motor are made of magnetic-resonance-compatible materials, which do not emit or emit only negligible magnetic-resonance signals in response to high-frequency fields occurring in the magnetic resonance tomography device - an ultrasonic array configured to detect ultrasonic signals, and - a housing comprising an acoustic window portion and a housing wall, whereby the ultrasonic array is arranged in the housing in acoustic contact with the acoustic window portion, wherein - the acoustic window portion is configured for an adherence to a surface of the object to be examined, - the housing forms an electromagnetic shielding which is effective against fields in a magnetic resonance tomography device, and - the ultrasonic measuring device has an actuator device which is configured for the adjustment and/or movement of the ultrasonic array relative to an object to be examined, wherein - the actuator device comprises a piezoelectric ring motor using which the ultrasonic array can be moved relative to the acoustic window portion, and - the ultrasonic array, the housing and the piezoelectric ring motor are made of magnetic-resonance-compatible materials, which do not emit or emit only negligible magnetic-resonance signals in response to high-frequency fields occurring in the magnetic resonance tomography device
A sound processing device comprising: a modulation spectrum specifier that is adapted to specify a modulation spectrum of an input sound signal (S IN, V IN) for each of a plurality of unit time intervals (T U) into which the input sound signal (S IN) is divided in time; a first index calculator that is adapted to calculate a first index value corresponding to a magnitude of components of modulation frequencies belonging to a predetermined range of the modulation spectrum; and a determinator that is adapted to determine whether or not the input sound signal (S IN, V IN) of each of the unit time intervals (T U) is a sound uttered by a human being based on the first index value; characterized by: a magnitude specifier that is adapted to specify a maximum value of a magnitude of the modulation spectrum, wherein the determinator is adapted to determine whether or not the input sound signal is a sound uttered by a human being based on the first index value and the maximum value of the magnitude of the modulation spectrum. a modulation spectrum specifier that is adapted to specify a modulation spectrum of an input sound signal (S IN, V IN) for each of a plurality of unit time intervals (T U) into which the input sound signal (S IN) is divided in time; a first index calculator that is adapted to calculate a first index value corresponding to a magnitude of components of modulation frequencies belonging to a predetermined range of the modulation spectrum; and a determinator that is adapted to determine whether or not the input sound signal (S IN, V IN) of each of the unit time intervals (T U) is a sound uttered by a human being based on the first index value; characterized by: a magnitude specifier that is adapted to specify a maximum value of a magnitude of the modulation spectrum, wherein the determinator is adapted to determine whether or not the input sound signal is a sound uttered by a human being based on the first index value and the maximum value of the magnitude of the modulation spectrum. a magnitude specifier that is adapted to specify a maximum value of a magnitude of the modulation spectrum, wherein the determinator is adapted to determine whether or not the input sound signal is a sound uttered by a human being based on the first index value and the maximum value of the magnitude of the modulation spectrum.
An implantable blood pump comprising: a housing defining an inlet opening and an outlet opening; a dividing wall within the housing defining a blood flow conduit, the blood flow conduit extending between the inlet opening and the outlet opening of the housing; and a rotary motor including a rotor and a stator to rotate the rotor, the stator being disposed within the housing circumferentially about the dividing wall such that the inner blood flow conduit extends through the stator, wherein the stator is disposed circumferentially about at least a part of the rotor and is positioned relative to the rotor such that the blood flow conduit extends through the stator before reaching the rotor. a housing defining an inlet opening and an outlet opening; a dividing wall within the housing defining a blood flow conduit, the blood flow conduit extending between the inlet opening and the outlet opening of the housing; and a rotary motor including a rotor and a stator to rotate the rotor, the stator being disposed within the housing circumferentially about the dividing wall such that the inner blood flow conduit extends through the stator, wherein the stator is disposed circumferentially about at least a part of the rotor and is positioned relative to the rotor such that the blood flow conduit extends through the stator before reaching the rotor.
Use of an unsaturated polyalpha-olefin material as a chemical intermediate for making PAO materials bearing functional groups thereon, the unsaturated polyalpha-olefin material comprising an olefin mixture of vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, the olefin mixture having: an isotacticity of at least 50%, expressed as the mole percentage of (m,m)-triads as measured by using 13C NMR; a number-average molecular weight from 100 to 10,000; a polydispersity index in the range from 1.0 to 2.0; a kinematic viscosity at 100°C in the range from 20 to 1000 cSt; and based on the total moles of the vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, as measured by 1H-NMR: a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%. an isotacticity of at least 50%, expressed as the mole percentage of (m,m)-triads as measured by using 13C NMR; a number-average molecular weight from 100 to 10,000; a polydispersity index in the range from 1.0 to 2.0; a kinematic viscosity at 100°C in the range from 20 to 1000 cSt; and based on the total moles of the vinylidene olefins, 1,2-di-substituted vinylene olefins, and tri-substituted vinylene olefins, as measured by 1H-NMR: a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%. a concentration of the vinylidene olefins in the range from 3 to 80 mol%; a concentration of the 1,2-di-substituted vinylene olefins in the range from 10 - 70 mol%; and a concentration of the tri-substituted vinylene olefins in the range from 5 to 60 mol%.