mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: multi-cascode bias transistors comprising first and second cascode bias transistors (310.1R, 310.2R) connected in series and an input bias transistor, the input bias transistor comprising a drain coupled to the source of the first cascode bias transistor; and first and second impedance networks (330.1U, 330.1L, 330.2U, 330.2L) coupled to a first supply voltage for generating bias voltages for the first and second cascode bias transistors, respectively, at least one of the first and second impedance networks comprising a configurable impedance for adjusting at least one bias voltage for the first and second cascode bias transistors; and wherein the input bias transistor is biased to a gate voltage determined by a reference current (I_ref) through a transistor that is a replica of the input bias transistor; and further comprising a multi-cascode amplifier comprising: a first cascode transistor (310.1) comprising a gate coupled to the bias voltage of the first cascode bias network; and a second cascode transistor (310.2), connected in series to the first cascode transistor, comprising a gate coupled to the bias voltage of the second cascode bias network; and an input transistor coupled to the source of the first cascode transistor, the input transistor comprising a gate coupled to the gate voltage of the input bias transistor. multi-cascode bias transistors comprising first and second cascode bias transistors (310.1R, 310.2R) connected in series and an input bias transistor, the input bias transistor comprising a drain coupled to the source of the first cascode bias transistor; and first and second impedance networks (330.1U, 330.1L, 330.2U, 330.2L) coupled to a first supply voltage for generating bias voltages for the first and second cascode bias transistors, respectively, at least one of the first and second impedance networks comprising a configurable impedance for adjusting at least one bias voltage for the first and second cascode bias transistors; and wherein the input bias transistor is biased to a gate voltage determined by a reference current (I_ref) through a transistor that is a replica of the input bias transistor; and a first cascode transistor (310.1) comprising a gate coupled to the bias voltage of the first cascode bias network; and a second cascode transistor (310.2), connected in series to the first cascode transistor, comprising a gate coupled to the bias voltage of the second cascode bias network; and an input transistor coupled to the source of the first cascode transistor, the input transistor comprising a gate coupled to the gate voltage of the input bias transistor.
A radio communication terminal apparatus comprising: a reference signal generating section adapted to generate two reference signals for demodulation by determining a pair of complex coefficients w 1 and w 2 according to a relationship between cyclic shift indexes and pairs of complex coefficients and by multiplying two reference signals by the determined pair of complex coefficients w 1 and w 2, wherein a phase difference among the generated two reference signals included in a slot for transmission is zero degrees, when the cyclic shift index allocated to the radio communication terminal apparatus is even number and a type of a response signal, which indicates an error detection result of a downlink data, is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is ACK, and the phase difference among the generated two reference signals is 180 degrees, when the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is even number and the type of the response signal is ACK; and a transmitting section that transmits the generated two reference signals. a reference signal generating section adapted to generate two reference signals for demodulation by determining a pair of complex coefficients w 1 and w 2 according to a relationship between cyclic shift indexes and pairs of complex coefficients and by multiplying two reference signals by the determined pair of complex coefficients w 1 and w 2, wherein a phase difference among the generated two reference signals included in a slot for transmission is zero degrees, when the cyclic shift index allocated to the radio communication terminal apparatus is even number and a type of a response signal, which indicates an error detection result of a downlink data, is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is ACK, and the cyclic shift index allocated to the radio communication terminal apparatus is even number and a type of a response signal, which indicates an error detection result of a downlink data, is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is ACK, and the phase difference among the generated two reference signals is 180 degrees, when the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is even number and the type of the response signal is ACK; and the cyclic shift index allocated to the radio communication terminal apparatus is odd number and the type of the response signal is NACK or the cyclic shift index allocated to the radio communication terminal apparatus is even number and the type of the response signal is ACK; and a transmitting section that transmits the generated two reference signals.
A composition comprising anucleate cell-derived vesicles for use in a method of treating a cancer in a subject in need thereof, wherein the anucleate cell-derived vesicles comprise a mutated Ras antigen; and wherein the mutated Ras antigen is delivered to the anucleate cell-derived vesicles intracellularly.
A method for wireless communication, comprising: identifying a discrete Fourier transform, DFT, configuration for a plurality of DFT-precoded symbols; receiving the plurality of DFT-precoded symbols via a corresponding plurality of subcarriers within a wireless signal and additional non-DFT-precoded reference symbols via additional subcarriers within the wireless signal, the plurality of subcarriers including at least a subset of subcarriers that are adjacent in frequency; processing the plurality of DFT-precoded symbols by a DFT module and by several inverse DFT, IDFT, modules (410-a, 410-b, 410-c) to obtain time domain symbols corresponding to the DFT-precoded symbols and processing the additional non-DFT-precoded reference symbols by the DFT module to obtain frequency domain representations corresponding to the non-DFT-precoded symbols; estimating a phase error based at least in part on the plurality of DFT-precoded symbols and the DFT configuration by comparing the plurality of time domain symbols corresponding to the DFT-precoded symbols with a corresponding plurality of reference symbols in the time domain; and applying a phase correction based at least in part on the phase error to the frequency domain representations corresponding to the non-DFT-precoded symbols. identifying a discrete Fourier transform, DFT, configuration for a plurality of DFT-precoded symbols; receiving the plurality of DFT-precoded symbols via a corresponding plurality of subcarriers within a wireless signal and additional non-DFT-precoded reference symbols via additional subcarriers within the wireless signal, the plurality of subcarriers including at least a subset of subcarriers that are adjacent in frequency; processing the plurality of DFT-precoded symbols by a DFT module and by several inverse DFT, IDFT, modules (410-a, 410-b, 410-c) to obtain time domain symbols corresponding to the DFT-precoded symbols and processing the additional non-DFT-precoded reference symbols by the DFT module to obtain frequency domain representations corresponding to the non-DFT-precoded symbols; estimating a phase error based at least in part on the plurality of DFT-precoded symbols and the DFT configuration by comparing the plurality of time domain symbols corresponding to the DFT-precoded symbols with a corresponding plurality of reference symbols in the time domain; and applying a phase correction based at least in part on the phase error to the frequency domain representations corresponding to the non-DFT-precoded symbols.
Lamp with a housing, with at least two light sources arranged next to each other in the housing, all of which radiate to the same side of the housing and of which each comprises a light-emitting region, and with an imaging dioptric device, characterised by a first dioptric device located in front of the light sources in the beam path and configured such that, from the actual light-emitting regions, it generates a single, at least approximately virtual image of the light-emitting region, in that the light-emitting regions are essentially superimposed into substantially a single light-emitting region, wherein the imaging dioptric device is configured to form the image of the virtual light-emitting region on a surface.
A cannulated flexible drive shaft comprising: a tubular shaft having a proximal end, a distal end, an inner surface and an outer surface; a first interlocking section comprising a cut around the entire circumference of the tubular shaft to create a dovetail design comprising alternating substantially triangular-shaped pins and substantially triangular-shaped sockets; and a second interlocking section comprising a cut around the entire circumference of the tubular shaft to create a dovetail design comprising alternating substantially triangular-shaped pins and substantially triangular-shaped sockets, the substantially triangular-shaped pins and substantially triangular-shaped sockets being cut at opposing angles, characterized in that the pins of the first interlocking section comprise side portions having outward angled surfaces and outer portions having inward angled surfaces, and the pins of the second interlocking section comprise side portions having inward angled surfaces and outer portions having outward angled surfaces a tubular shaft having a proximal end, a distal end, an inner surface and an outer surface; a first interlocking section comprising a cut around the entire circumference of the tubular shaft to create a dovetail design comprising alternating substantially triangular-shaped pins and substantially triangular-shaped sockets; and a second interlocking section comprising a cut around the entire circumference of the tubular shaft to create a dovetail design comprising alternating substantially triangular-shaped pins and substantially triangular-shaped sockets, the substantially triangular-shaped pins and substantially triangular-shaped sockets being cut at opposing angles, characterized in that the pins of the first interlocking section comprise side portions having outward angled surfaces and outer portions having inward angled surfaces, and the pins of the second interlocking section comprise side portions having inward angled surfaces and outer portions having outward angled surfaces
A method for connecting a WIFI hotspot, characterized by comprising: connecting, by a communication terminal, to a WIFI hotspot without encryption; sending, by the communication terminal, verification information locally preset in the communication terminal to a network server; and receiving, by the communication terminal, verification information fed back by the network server and comparing with the verification information locally preset in the communication terminal, then keeping the connection with the WIFI hotspot when the verification information fed back by the network server is consistent with the verification information locally preset in the communication terminal which indicates that the WIFI hotspot currently connected with the communication terminal does not need a second verification; wherein, the network server is preset with verification information, the method further comprises: receiving, by the network server, the verification information sent by the communication terminal and comparing with the verification information locally preset in the network server, then feeding back verification information to the communication terminal when the verification information sent by the communication terminal is consistent with the verification information locally preset in the network server. connecting, by a communication terminal, to a WIFI hotspot without encryption; sending, by the communication terminal, verification information locally preset in the communication terminal to a network server; and receiving, by the communication terminal, verification information fed back by the network server and comparing with the verification information locally preset in the communication terminal, then keeping the connection with the WIFI hotspot when the verification information fed back by the network server is consistent with the verification information locally preset in the communication terminal which indicates that the WIFI hotspot currently connected with the communication terminal does not need a second verification; wherein, the network server is preset with verification information, the method further comprises: receiving, by the network server, the verification information sent by the communication terminal and comparing with the verification information locally preset in the network server, then feeding back verification information to the communication terminal when the verification information sent by the communication terminal is consistent with the verification information locally preset in the network server.
A robot system comprising: at least one supporting unit, on which a person is placeable; a robot including a plurality of multi-jointed arms, each of which has a plurality of degrees of freedom, and at least one base provided with the plurality of multi-jointed arms; and at least one type of equipment mountable to the plurality of multi-jointed arms, wherein the robot is configured to perform at least two nursing/medical actions on the person by operating the at least one type of equipment, characterized in that the at least one type of equipment includes a cushion, and the at least two nursing/medical actions include an action of changing a body position of the person by using the cushion. at least one supporting unit, on which a person is placeable; a robot including a plurality of multi-jointed arms, each of which has a plurality of degrees of freedom, and at least one base provided with the plurality of multi-jointed arms; and at least one type of equipment mountable to the plurality of multi-jointed arms, wherein the robot is configured to perform at least two nursing/medical actions on the person by operating the at least one type of equipment, characterized in that the at least one type of equipment includes a cushion, and the at least two nursing/medical actions include an action of changing a body position of the person by using the cushion.
A reservoir cap configured to be coupled to a neck of a container at its opening, comprising a first body having a cup-shaped portion closed at its bottom by a breakable wall, the first body comprising at least one sealing element with said neck, the cap also comprising a cutter provided with a head from which extends a cylindrical surface which is internally hollow that, when coupled to the cup-shaped portion, forms together with at least a part of the cup-shaped portion a reservoir for a product, the cutter sliding in a sealed manner inside the cup-shaped portion and comprising a cutting surface of the breakable wall formed at a free end of the cylindrical surface, the cup-shaped portion being configured so that, when the cap is placed on the container and the product is in the reservoir, the cutter, pushed with force against the breakable wall, at least partially separates the breakable wall from the cup-shaped portion which causes the introduction of said product by fall into the container, characterized in that at least an outer surface of the cutter in communication with a chamber formed between a lid and the first body is made of a thermoplastic material that absorbs moisture.
A process for producing fermentation products from starch-containing material comprising the steps of: a) liquefying starch-containing material using an alpha-amylase: b) saccharifying the liquefied material using a glucoamylase; c) fermenting using a fermenting organism, wherein saccharification is carried out in the presence of a GH5 xylanase, wherein the GH5 xylanase is selected from subfamily 35. a) liquefying starch-containing material using an alpha-amylase: b) saccharifying the liquefied material using a glucoamylase; c) fermenting using a fermenting organism, wherein saccharification is carried out in the presence of a GH5 xylanase, wherein the GH5 xylanase is selected from subfamily 35.
A method of filtering for use in encoding an image, the image including blocks of samples, the method comprising: spectrally transforming the blocks of samples to obtain blocks of transform coefficients ( c x); for each of the blocks of samples, spectrally transforming a block of prediction samples to obtain a block of prediction transform coefficients ( c p); generating a block of transform domain filter coefficients based upon the blocks of transform coefficients ( c x) and the blocks of prediction transform coefficients ( c p); and for each of the blocks of transform coefficients ( c x), calculating transform domain residuals ( c z) by applying the block of transform domain filter coefficients to at least a portion of the block of prediction transform coefficients ( c p) associated with that block of transform coefficients ( c x); and wherein generating the block of transform domain filter coefficients comprises calculating, for at least some of the coefficient positions in the block, a ratio, a numerator of the ratio including a sum of the product of values in the corresponding position of the blocks of transform coefficients ( c x) and values in the corresponding position of the blocks of prediction transform coefficients ( c p), and a denominator of the ratio including a sum of the square of the values in the corresponding position of the blocks of prediction transform coefficients ( c p). spectrally transforming the blocks of samples to obtain blocks of transform coefficients ( c x); for each of the blocks of samples, spectrally transforming a block of prediction samples to obtain a block of prediction transform coefficients ( c p); generating a block of transform domain filter coefficients based upon the blocks of transform coefficients ( c x) and the blocks of prediction transform coefficients ( c p); and for each of the blocks of transform coefficients ( c x), calculating transform domain residuals ( c z) by applying the block of transform domain filter coefficients to at least a portion of the block of prediction transform coefficients ( c p) associated with that block of transform coefficients ( c x); and wherein generating the block of transform domain filter coefficients comprises calculating, for at least some of the coefficient positions in the block, a ratio, a numerator of the ratio including a sum of the product of values in the corresponding position of the blocks of transform coefficients ( c x) and values in the corresponding position of the blocks of prediction transform coefficients ( c p), and a denominator of the ratio including a sum of the square of the values in the corresponding position of the blocks of prediction transform coefficients ( c p).
Attachment element (18, 19, 29) for a domestic appliance, which has a deformable connecting area for connecting the attachment element (18, 19, 29) to a first component (9 to 13) of the domestic appliance, and at least one thread (30, 43) for the threaded coupling of the attachment element (18, 19, 29) to a second component, wherein the attachment element (18, 19, 29) is embodied as a metal part, and the connecting area has a zone which can be shortened in the direction of the longitudinal axis of the attachment element (18, 19, 29) by means of compression, wherein the connecting area is embodied to be compressed in an end state of the attachment element (18, 19, 29) fastened to the first component (9 to 13) such that a bulge has formed, which projects radially beyond a free edge of a collar of the first component (9 to 13) or rests hereupon, characterised in that the attachment element (18, 19, 29) is embodied as a powder metallurgy part and as a metal injection moulding component, and in that the connecting area is embodied as a hollow section which has a wall thickness which is smaller than a wall thickness of subareas (37, 42) adjoining the connecting area and wherein viewed in the axial direction the wall thickness in the connecting area is varied at least once and wherein the thickness variation is formed by a groove.
A measuring apparatus comprising: an ear simulator, which has an artificial ear canal (53,133), for simulating the human ear, characterized by a vibration detector (55, 135) disposed on an artificial eardrum (57, 137), which is disposed at the end of the artificial ear canal (53, 133), formed in the ear simulator, the artificial eardrum (57, 137) blocking the artificial ear canal (53, 133), wherein an electronic device delivers a sound through vibration transmission from a vibrator retained in a housing held against the ear simulator. an ear simulator, which has an artificial ear canal (53,133), for simulating the human ear, characterized by a vibration detector (55, 135) disposed on an artificial eardrum (57, 137), which is disposed at the end of the artificial ear canal (53, 133), formed in the ear simulator, the artificial eardrum (57, 137) blocking the artificial ear canal (53, 133), wherein an electronic device delivers a sound through vibration transmission from a vibrator retained in a housing held against the ear simulator.