mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a processor to execute a host instruction set; a memory; and translator logic to: determine whether an offset is a constant and whether the offset is greater than zero and less than a maximum offset in response to receiving a guest memory access instruction that contains a base address plus or minus the offset, the maximum offset related to at least one of a host instruction set architecture, ISA, and a guest ISA; characterized by the translator logic being further to: translate the guest memory access instruction from a source ISA into a target ISA and a native word size of the guest ISA is less than a native word size of the host ISA, the guest memory access instruction related to the guest ISA; define an overflow, OF, zone (212, 222) and an underflow, UF, zone (216, 226) in the memory, the OF zone and the UF zone related to the maximum offset, wherein the maximum offset is determined to be less than or equal to the size of the overflow zone; and emulate an OF zone in a host memory address space that relates to a respective overflow zone in the guest memory address space by setting memory access privileges of the OF zone to prevent read, write and execution access. a processor to execute a host instruction set; a memory; and translator logic to: determine whether an offset is a constant and whether the offset is greater than zero and less than a maximum offset in response to receiving a guest memory access instruction that contains a base address plus or minus the offset, the maximum offset related to at least one of a host instruction set architecture, ISA, and a guest ISA; characterized by the translator logic being further to: translate the guest memory access instruction from a source ISA into a target ISA and a native word size of the guest ISA is less than a native word size of the host ISA, the guest memory access instruction related to the guest ISA; define an overflow, OF, zone (212, 222) and an underflow, UF, zone (216, 226) in the memory, the OF zone and the UF zone related to the maximum offset, wherein the maximum offset is determined to be less than or equal to the size of the overflow zone; and emulate an OF zone in a host memory address space that relates to a respective overflow zone in the guest memory address space by setting memory access privileges of the OF zone to prevent read, write and execution access. translate the guest memory access instruction from a source ISA into a target ISA and a native word size of the guest ISA is less than a native word size of the host ISA, the guest memory access instruction related to the guest ISA; define an overflow, OF, zone (212, 222) and an underflow, UF, zone (216, 226) in the memory, the OF zone and the UF zone related to the maximum offset, wherein the maximum offset is determined to be less than or equal to the size of the overflow zone; and emulate an OF zone in a host memory address space that relates to a respective overflow zone in the guest memory address space by setting memory access privileges of the OF zone to prevent read, write and execution access.
A system for treating a lumen in a body comprising: a catheter comprising at least one energy delivery body positionable within the lumen and configured to deliver non-thermal energy to a wall of the lumen; and a generator having at least one energy delivery algorithm configured to provide an electric signal of the non-thermal energy to the at least one energy delivery body, wherein the at least one energy delivery algorithm is configured to specify as the electric signal an electric signal that selectively targets particular cells of the lumen based on size, shape, type, or function, while avoiding collateral cells. a catheter comprising at least one energy delivery body positionable within the lumen and configured to deliver non-thermal energy to a wall of the lumen; and a generator having at least one energy delivery algorithm configured to provide an electric signal of the non-thermal energy to the at least one energy delivery body, wherein the at least one energy delivery algorithm is configured to specify as the electric signal an electric signal that selectively targets particular cells of the lumen based on size, shape, type, or function, while avoiding collateral cells.
A heat-sealable, peelable, coextruded composite polymeric film comprising a substrate layer of polymeric material having on a surface thereof a heat-sealable layer, wherein: (i) said heat-sealable layer comprises a copolyester of azelaic acid and terephthalic acid with ethylene glycol; wherein the relative molar ratios of azelaic acid/terephthalic acid/ethylene glycol are in the range 40-50/60-50/100 and the copolyester makes up at least 90% by weight of the total weight of the heat sealable layer; (ii) the thickness of said heat-sealable layer is in the range of from about 0.5 to about 0.9 μm; and (iii) the heat-sealable layer comprises one or more waxes. (i) said heat-sealable layer comprises a copolyester of azelaic acid and terephthalic acid with ethylene glycol; wherein the relative molar ratios of azelaic acid/terephthalic acid/ethylene glycol are in the range 40-50/60-50/100 and the copolyester makes up at least 90% by weight of the total weight of the heat sealable layer; (ii) the thickness of said heat-sealable layer is in the range of from about 0.5 to about 0.9 μm; and (iii) the heat-sealable layer comprises one or more waxes.
A method for determining at least one segmentation parameter of volumetric image data of a dento-maxillofacial object, said method comprising the steps of: a. obtaining volumetric image data of a calibration object having a calibration object design with the same imaging protocol as used for obtaining said volumetric image data of said dento-maxillofacial object; b. determining said at least one segmentation parameter by: - aligning in a space said calibration object design and said volumetric image data of said calibration object; - measuring image values in the volumetric image data of the calibration object at the surface of the aligned calibration object design, storing the measured image values, and building a histogram of the stored image values; and - deriving the segmentation parameter by using a selection criterion in combination with said histogram. a. obtaining volumetric image data of a calibration object having a calibration object design with the same imaging protocol as used for obtaining said volumetric image data of said dento-maxillofacial object; b. determining said at least one segmentation parameter by: - aligning in a space said calibration object design and said volumetric image data of said calibration object; - measuring image values in the volumetric image data of the calibration object at the surface of the aligned calibration object design, storing the measured image values, and building a histogram of the stored image values; and - deriving the segmentation parameter by using a selection criterion in combination with said histogram. - aligning in a space said calibration object design and said volumetric image data of said calibration object; - measuring image values in the volumetric image data of the calibration object at the surface of the aligned calibration object design, storing the measured image values, and building a histogram of the stored image values; and - deriving the segmentation parameter by using a selection criterion in combination with said histogram.
A method for sending dedicated physical control channel, DPCCH, control information, comprising: when receiving uplink grant signaling sent by a network-side device, acquiring, by a terminal, a uplink transmission gap, wherein the uplink grant signaling is used to indicate a time when the terminal initiates uplink transmission and the uplink transmission gap is a time interval between an initiation, by the terminal, of a current uplink transmission and a termination of the most recent uplink transmission; when the uplink transmission gap is less than or equal to a threshold, sending, by the terminal, DPCCH control information to a network-side device by using a transmit power of the most recent DPCCH control information; and when the uplink transmission gap is larger than the threshold, sending, by the terminal, DPCCH control information to the network-side device by using a transmit power which is obtained by introducing a power offset on a basis of power after DPCCH filtering; wherein the threshold is received by the terminal from the network-side device. when receiving uplink grant signaling sent by a network-side device, acquiring, by a terminal, a uplink transmission gap, wherein the uplink grant signaling is used to indicate a time when the terminal initiates uplink transmission and the uplink transmission gap is a time interval between an initiation, by the terminal, of a current uplink transmission and a termination of the most recent uplink transmission; when the uplink transmission gap is less than or equal to a threshold, sending, by the terminal, DPCCH control information to a network-side device by using a transmit power of the most recent DPCCH control information; and when the uplink transmission gap is larger than the threshold, sending, by the terminal, DPCCH control information to the network-side device by using a transmit power which is obtained by introducing a power offset on a basis of power after DPCCH filtering; wherein the threshold is received by the terminal from the network-side device.
Passive node for a wireless sensor network comprising: an antenna for data communication and electromagnetic energy reception for obtaining electrical energy for powering said node; two impedance matching networks attached to said antenna; and a data processor for receiving and/or transmitting data and arranged to be powered by the obtained electric energy; wherein said antenna and impedance matching networks are configured for two different frequencies, a first network arranged for receiving electromagnetic energy emitted from an electromagnetic energy emitter and a second network arranged for backscatter communication; characterised in that the passive node comprises a plurality of semiconductors for modulation control of said passive node by said data processor, in balanced and out of phase impedance branches; wherein the semiconductors are independently controllable by the data processor. an antenna for data communication and electromagnetic energy reception for obtaining electrical energy for powering said node; two impedance matching networks attached to said antenna; and a data processor for receiving and/or transmitting data and arranged to be powered by the obtained electric energy; wherein said antenna and impedance matching networks are configured for two different frequencies, a first network arranged for receiving electromagnetic energy emitted from an electromagnetic energy emitter and a second network arranged for backscatter communication; characterised in that the passive node comprises a plurality of semiconductors for modulation control of said passive node by said data processor, in balanced and out of phase impedance branches; wherein the semiconductors are independently controllable by the data processor.
A method for hybrid classical-quantum communication, the method comprising: transmitting a single photon having a particular quantum state over a communication medium using a quantum mode set, wherein the quantum mode set comprises non-separable modes for quantum communication; and transmitting a classical light beam over the same communication medium using a classical mode set, wherein the classical mode set comprises non-separable modes for classical communication; wherein the classical and quantum mode sets comprise non-separable modes in common. transmitting a single photon having a particular quantum state over a communication medium using a quantum mode set, wherein the quantum mode set comprises non-separable modes for quantum communication; and transmitting a classical light beam over the same communication medium using a classical mode set, wherein the classical mode set comprises non-separable modes for classical communication; wherein the classical and quantum mode sets comprise non-separable modes in common.
An article of footwear (10f, 10g) comprising: an upper (100f, 100g); a tensioning grip (310f, 311g) disposed at an outer surface of the upper (100f, 100g) and configured as a loop; a tensioning cable (302f, 302g) coupled with the tensioning grip (310f, 311g) and operable to move the upper (100f, 100g) into one of a tightened state and a loosened state, the tensioning cable (302f, 302g) movable in a tightening direction to move the upper (100f, 100g) into the tightened state and movable in a loosening direction to move the upper (100f, 100g) into the loosened state; and a first conduit (325-3, 310g) including an inner diameter that is greater than an outer diameter of the tensioning cable (302f, 302g) and receiving a portion of the tensioning cable (302f, 302g) therein, the first conduit (325-4, 310g) operable to accommodate bunching by the tensioning cable (302f, 302g) following movement of the tensioning cable (302f, 302g) in one of the tightening direction and the loosening direction, and characterized in that the tensioning grip (310f, 311g) integrally forms a passage for guiding and enclosing portions of the tensioning cable (302f, 302g), and wherein the tensioning grip (310f, 311g includes a fabric material that imparts elastic properties. an upper (100f, 100g); a tensioning grip (310f, 311g) disposed at an outer surface of the upper (100f, 100g) and configured as a loop; a tensioning cable (302f, 302g) coupled with the tensioning grip (310f, 311g) and operable to move the upper (100f, 100g) into one of a tightened state and a loosened state, the tensioning cable (302f, 302g) movable in a tightening direction to move the upper (100f, 100g) into the tightened state and movable in a loosening direction to move the upper (100f, 100g) into the loosened state; and a first conduit (325-3, 310g) including an inner diameter that is greater than an outer diameter of the tensioning cable (302f, 302g) and receiving a portion of the tensioning cable (302f, 302g) therein, the first conduit (325-4, 310g) operable to accommodate bunching by the tensioning cable (302f, 302g) following movement of the tensioning cable (302f, 302g) in one of the tightening direction and the loosening direction, and characterized in that the tensioning grip (310f, 311g) integrally forms a passage for guiding and enclosing portions of the tensioning cable (302f, 302g), and wherein the tensioning grip (310f, 311g includes a fabric material that imparts elastic properties.
An apparatus comprising: a working assembly configured to perform a work function responsive to operation of the working assembly; an electric BLDC motor that powers the working assembly; a power source configured to selectively power the BLDC motor; control circuitry for controlling operation of the BLDC motor; and a brake function configured to selectively apply braking to the BLDC motor responsive to a brake initiation event, the brake function comprises a first phase, a second phase, and a third phase, each of which includes independent circuitry for connecting a corresponding phase of the electric motor to a common point in response to the brake initiation event, effectively short-circuiting the BLDC motor characterized in that the brake function is configured to apply the braking by short-circuiting motor phase windings of the BLDC motor without requiring an external power supply during application of the braking. a working assembly configured to perform a work function responsive to operation of the working assembly; an electric BLDC motor that powers the working assembly; a power source configured to selectively power the BLDC motor; control circuitry for controlling operation of the BLDC motor; and a brake function configured to selectively apply braking to the BLDC motor responsive to a brake initiation event, the brake function comprises a first phase, a second phase, and a third phase, each of which includes independent circuitry for connecting a corresponding phase of the electric motor to a common point in response to the brake initiation event, effectively short-circuiting the BLDC motor characterized in that the brake function is configured to apply the braking by short-circuiting motor phase windings of the BLDC motor without requiring an external power supply during application of the braking.
An exoskeleton for assisting human movement that comprises a mechanical structure comprising segments joined by joints that enable the relative movement between two or more successive segments for moving the limbs of the user lending them a natural gait and a fastening system that allows it to carry out its coupling to the human body characterized in that the fastening system comprises a rigid lumbar reinforcement that in turn comprises two or more segments suitable to be coupled by means of a coupling system, where two of said segments are joined to the segments of the exoskeleton by means of at least one rotation shaft, such that, during use of the exoskeleton, the segments are connected and the lumbar reinforcement occupies the rear portion of the exoskeleton, while, during assembly of the exoskeleton, the segments are disconnected and the lumbar reinforcement is retracted by means of successive rotations of the segments until said segments and said lumbar reinforcement are located in the sagittal plane.
A method for exchanging key material with no possibility of interception between a sender and a receiver for a key for encrypting a message in a glass fiber network, wherein at least two photons are entangled with one another and one photon is sent via a quantum channel (13a, 13b) of a glass fiber with a wavelength A EQSE from the sender to the receiver, wherein the at least two quantum channels (13a, 13b) are disjunct relative to one another, and wherein, at a randomly selected time and for a randomly selected duration, the key material is sent in a key transmission phase from the sender to the receiver via a data channel that is superimposed on one of the disjunct quantum channels (13a, 13b) by random selection, wherein the data channel is designed for a power many orders of magnitude greater than that of the respective two or more quantum channels (13a, 13b).
A multimodal ethylene copolymer with a density of at least 954 kg/m 3 when measured according to ISO 1183 / 1872-2B; and having an MFR 5 in the range of 0.01 to 10 g/10min, when measured according to ISO 1133 at 190 °C under 5 kg load; and a F max /λ I ratio of less than 60 cN/s; said ethylene copolymer comprising at least three components an ethylene homopolymer component having an MFR 2 of 100 g/10min or more forming 30 to 60 wt% of said ethylene copolymer; an ethylene and at least one C3-20 alpha olefin comonomer second component forming 30 to 60 wt% of said ethylene copolymer wherein the MFR 5 of the combination of components and is 0.1 to 15 g/10min; and an ethylene and at least one C3-20 alpha olefin comonomer third component forming 0.5 to 12 wt% of said ethylene copolymer; wherein the MFR 2 (when measured according to ISO 1133 at 190 °C under 2.16 kg load) and the MFR 5 of component is higher than that of component, wherein the Mw of component is higher than that of the other two components, wherein the MFR 5 of component is higher than that of component, and wherein the Mw/Mn of the multimodal ethylene copolymer is 10 to 20. an ethylene homopolymer component having an MFR 2 of 100 g/10min or more forming 30 to 60 wt% of said ethylene copolymer; an ethylene and at least one C3-20 alpha olefin comonomer second component forming 30 to 60 wt% of said ethylene copolymer wherein the MFR 5 of the combination of components and is 0.1 to 15 g/10min; and an ethylene and at least one C3-20 alpha olefin comonomer third component forming 0.5 to 12 wt% of said ethylene copolymer;
A method for co-channel separation of communication signals, comprising: simultaneously receiving a plurality of communication signals transmitted at disparate relative Doppler frequencies from different locations within a multi-access system; performing matched filtering operations to pre-process each of the plurality of communication signals so as to generate pre-processed digitized samples using a priori information contained in pre-ambles (302, 304) of messages present within the plurality of communication signals; and estimating signal parameters and detecting the plurality of communication signals from the pre-processed digitized samples; the method characterized by demodulating the plurality of communication signals using a non-coherent Decision Feedback Equalization, DFE, demodulation technique, wherein the DFE demodulation technique involves: match filtering each signal of the plurality of communication signals; de-rotating each signal to a real axis; whitening filtering each signal to remove the effects of Inter-Symbol Interference, ISI, on pulses that are currently being demodulated; non-coherently demodulating each signal; and wherein the DFE demodulation technique further includes: 1 determining hard decisions and soft decisions about binary bits contained in each signal; wherein the soft decisions are used for error correction based on a Cyclic-Redundancy Code, CRC. simultaneously receiving a plurality of communication signals transmitted at disparate relative Doppler frequencies from different locations within a multi-access system; performing matched filtering operations to pre-process each of the plurality of communication signals so as to generate pre-processed digitized samples using a priori information contained in pre-ambles (302, 304) of messages present within the plurality of communication signals; and estimating signal parameters and detecting the plurality of communication signals from the pre-processed digitized samples; the method characterized by match filtering each signal of the plurality of communication signals; de-rotating each signal to a real axis; whitening filtering each signal to remove the effects of Inter-Symbol Interference, ISI, on pulses that are currently being demodulated; non-coherently demodulating each signal; and wherein the DFE demodulation technique further includes: 1 determining hard decisions and soft decisions about binary bits contained in each signal; wherein the soft decisions are used for error correction based on a Cyclic-Redundancy Code, CRC.
Headrest for a vehicle seat comprising a headrest body and a headrest cover at least partially surrounding said headrest body, on which cover a strip-shaped elastic band extending in a substantially horizontal direction (y) is attached at two positions of the headrest cover that are spaced apart from one another, wherein the elastic band is connected, at least at its lateral ends (3132c, 3132d), to the headrest cover, whereby an upper opening and an opposite lower opening are respectively formed between the elastic band and the headrest cover of the headrest, characterized in that the elastic band is formed in multiple layers as at least one pocket (30a, 30b, 30c).