mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (100, 200, 300) for opportunistic measurements of user's context, said measurements including ECG measurements, said apparatus being a computing device comprising: at least one work surface (102, 202, 304) that includes one or more electrodes (110, 112, 114, 116; 210, 212, 214, 216) disposed on the work surface to directly contact with user's hands, palms, or wrists, when the user's hands, palms, or wrists are disposed on the work surface to interact with the apparatus, to obtain one or more parameters of user's physiological context; and circuitry (124, 224) coupled with the electrodes to detect direct contact between the user's hands, palms, or wrists and the electrodes and on detection, collect the one or more parameters of the user's physiological context while the direct contact is maintained, wherein the one or more electrodes form an electrically conductive pattern (160, 220, 302) on the work surface, characterized in that the electrically conductive pattern is electrically coupled with a sensing surface of a capacitive ECG measurement electrode disposed inside the work surface or on a back side of the work surface, wherein the size of the electrically conductive pattern is greater than the size of the sensing surface, to expand the sensing surface of the capacitive electrode. at least one work surface (102, 202, 304) that includes one or more electrodes (110, 112, 114, 116; 210, 212, 214, 216) disposed on the work surface to directly contact with user's hands, palms, or wrists, when the user's hands, palms, or wrists are disposed on the work surface to interact with the apparatus, to obtain one or more parameters of user's physiological context; and circuitry (124, 224) coupled with the electrodes to detect direct contact between the user's hands, palms, or wrists and the electrodes and on detection, collect the one or more parameters of the user's physiological context while the direct contact is maintained, wherein the one or more electrodes form an electrically conductive pattern (160, 220, 302) on the work surface, characterized in that the electrically conductive pattern is electrically coupled with a sensing surface of a capacitive ECG measurement electrode disposed inside the work surface or on a back side of the work surface, wherein the size of the electrically conductive pattern is greater than the size of the sensing surface, to expand the sensing surface of the capacitive electrode.
Method for reservation of a medium in a radio communication network for data transmission between stations (A-E) of the network comprising at least two first stations (A, B, E) operating according to a first protocol and a second station (C, D) operating according to a second protocol (802.11), the method comprises the steps of: - providing a contention free period (23;34) within the first and second protocol; - one first station (A;B) performing the reservation of the medium according to the first protocol by use of contention free period information in a first beacon signal (21;32) sent from the one first station to an other first station (B;A); - the other first station (B;A) performing the reservation of the medium according to the first protocol by use of contention free period information in a second beacon signal (22;33) sent from the other first station to the one first station; and - announcing the contention free period of the medium for reserving a future transmission by broadcasting the first and second beacon signals comprising reservation information for reservation of the medium which is recognized by the at least two first stations for data transmission between the one first station and the other first station, and comprising further a contention free period information, which is recognized by the second station so that the second station stay silent within said contention free period. - providing a contention free period (23;34) within the first and second protocol; - one first station (A;B) performing the reservation of the medium according to the first protocol by use of contention free period information in a first beacon signal (21;32) sent from the one first station to an other first station (B;A); - the other first station (B;A) performing the reservation of the medium according to the first protocol by use of contention free period information in a second beacon signal (22;33) sent from the other first station to the one first station; and - announcing the contention free period of the medium for reserving a future transmission by broadcasting the first and second beacon signals comprising reservation information for reservation of the medium which is recognized by the at least two first stations for data transmission between the one first station and the other first station, and comprising further a contention free period information, which is recognized by the second station so that the second station stay silent within said contention free period.
Method for use in adaptively modulating a radio link in a mobile communications system according to a time varying radio link quality, comprising the steps of: - adaptively selecting (14 - 42) a number of channelization codes and a modulation and coding scheme, MCS, from among a plurality of MCSs for use by a transmitter in sending data on a downlink shared transport channel over the radio link according to said time varying radio link quality, and - signaling information relating to said adaptively selected MCS and said number of channelization codes in one or more transport format timeslots prior to one or more automatic repeat request parameter timeslots adjacent to said transport format timeslots on a shared control channel from said transmitter to a receiver of said radio link at least one timeslot prior to starting said sending data in data timeslots on said downlink shared transport channel, and wherein said information relating to said adaptively selected MCS and said number of channelization codes is encoded separately from said at least one automatic repeat request parameter. - adaptively selecting (14 - 42) a number of channelization codes and a modulation and coding scheme, MCS, from among a plurality of MCSs for use by a transmitter in sending data on a downlink shared transport channel over the radio link according to said time varying radio link quality, and - signaling information relating to said adaptively selected MCS and said number of channelization codes in one or more transport format timeslots prior to one or more automatic repeat request parameter timeslots adjacent to said transport format timeslots on a shared control channel from said transmitter to a receiver of said radio link at least one timeslot prior to starting said sending data in data timeslots on said downlink shared transport channel, and wherein said information relating to said adaptively selected MCS and said number of channelization codes is encoded separately from said at least one automatic repeat request parameter.
A cleaning robot, comprising: a dust container configured to collect waste flowing through an inlet aperture formed in a front surface thereof; and a dust collection blade installed in front of the inlet aperture and configured to guide waste to flow into the dust container, the dust collection blade comprising a plurality of supporting protrusions, each protrusion forming itself an horizontal line extending from side to side on a rear surface of the dust collection blade and having semi-circular shape in view of a cross section, characterized in that the dust container comprises a hook insertion recess formed in the shape of a recess in one side thereof and a hinge protruding in a vertical direction in an opposite side thereof, and the dust collection blade comprises a hook part including a hook attached/detached to/from the hook insertion recess and a pivot part coupled to the hinge to pivot. a dust container configured to collect waste flowing through an inlet aperture formed in a front surface thereof; and a dust collection blade installed in front of the inlet aperture and configured to guide waste to flow into the dust container, the dust collection blade comprising a plurality of supporting protrusions, each protrusion forming itself an horizontal line extending from side to side on a rear surface of the dust collection blade and having semi-circular shape in view of a cross section,
An in vitro method for altering of the functional state of any nucleic acid enabling its selective and specific recognition, and subsequently selective intervention, manipulation, detection, quantification, labeling, pre-targeting and sorting thereof, characterized in that, the method comprises targeting said nucleic acid with a construct to form a stable heteroduplex, and wherein the construct comprises at least two sequence-specific single-stranded oligonucleotides being mutually interconnected through a size-specific linking moiety, each of the sequence-specific single-stranded oligonucleotides is targeted to a pre-defined target sequence of the nucleic acid resulting in the formation of a stable heteroduplex, each of the oligonucleotides within the one construct recognizes different complementary sequences of the target nucleic acid, the length of the size-specific linking moiety is adjusted to the mutual distance between the target sequences of the target nucleic acid and is between 5 and 1000 angstrom. the method comprises targeting said nucleic acid with a construct to form a stable heteroduplex, and wherein the construct comprises at least two sequence-specific single-stranded oligonucleotides being mutually interconnected through a size-specific linking moiety, each of the sequence-specific single-stranded oligonucleotides is targeted to a pre-defined target sequence of the nucleic acid resulting in the formation of a stable heteroduplex, each of the oligonucleotides within the one construct recognizes different complementary sequences of the target nucleic acid, the length of the size-specific linking moiety is adjusted to the mutual distance between the target sequences of the target nucleic acid and is between 5 and 1000 angstrom.
An implantable ophthalmic lens or an ophthalmic contact lens comprising: an anterior face and a posterior face, the faces (21, 22) disposed about an optical axis; and wherein the anterior face or the posterior face comprises: an echelette imposed thereon and constituting a central portion of the face; and an annular refractive peripheral portion; and a lens surface formed from (a) a primary zone surrounding the optical axis, (b) a transition zone, wherein the primary zone and the transition zone form the lens surface of the central portion, and (c) a peripheral zone forming the lens surface of the peripheral portion, wherein the lens surface is smooth and continuous between the primary zone and the peripheral zone through the transition zone; characterised in that the echelette is an isolated echelette, the annular refractive peripheral portion extends outwards from the central portion, and the peripheral zone is adjacent to the transition zone. an anterior face and a posterior face, the faces (21, 22) disposed about an optical axis; and wherein the anterior face or the posterior face comprises: an echelette imposed thereon and constituting a central portion of the face; and an annular refractive peripheral portion; and a lens surface formed from (a) a primary zone surrounding the optical axis, (b) a transition zone, wherein the primary zone and the transition zone form the lens surface of the central portion, and (c) a peripheral zone forming the lens surface of the peripheral portion, wherein the lens surface is smooth and continuous between the primary zone and the peripheral zone through the transition zone; characterised in that the echelette is an isolated echelette, the annular refractive peripheral portion extends outwards from the central portion, and the peripheral zone is adjacent to the transition zone. an echelette imposed thereon and constituting a central portion of the face; and an annular refractive peripheral portion; and a lens surface formed from (a) a primary zone surrounding the optical axis, (b) a transition zone, wherein the primary zone and the transition zone form the lens surface of the central portion, and (c) a peripheral zone forming the lens surface of the peripheral portion, wherein the lens surface is smooth and continuous between the primary zone and the peripheral zone through the transition zone; characterised in that the echelette is an isolated echelette, the annular refractive peripheral portion extends outwards from the central portion, and the peripheral zone is adjacent to the transition zone.
A heavy truck tire tread having a longitudinal direction, a lateral direction and a thickness direction, said tread having a ground-engaging contact surface and comprising at least four longitudinal grooves (3, 4, 5, 6, 7), the at least four longitudinal grooves (3, 4, 5, 6, 7) comprising two open grooves (4, 6) and at least two partially hidden grooves (3, 5, 7), the partially hidden grooves (3, 5, 7) comprising open portions (31, 51, 71) and duct portions (32, 52, 72) alternated along the longitudinal direction of the tread, said at least four longitudinal grooves (3, 4, 5, 6, 7) defining two shoulder ribs (10, 15), two intermediate ribs (11, 14) and at least one center rib (12, 13), characterised in that the shape, size and position of the grooves (3, 4, 5, 6, 7) are such that for any section (A, B, C) of tread of any given section length L between 12 mm and 40 mm, the percentage difference in rubber mass of a rib section (A, B, C) compared to a respective neighboring rib section (A, B, C) of the same section length L in the same rib (10, 11, 12, 13, 14, 15) is less than a maximum percentage difference, wherein • the maximum percentage difference for a shoulder rib (10, 15) is Ds(%) = 50/L(mm), • the maximum percentage difference for an intermediate rib (11, 14) is Di(%) = 70/L(mm), and • the maximum percentage difference for a full tread section (A, B, C) is Da(%) = 40/L(mm). • the maximum percentage difference for a shoulder rib (10, 15) is Ds(%) = 50/L(mm), • the maximum percentage difference for an intermediate rib (11, 14) is Di(%) = 70/L(mm), and • the maximum percentage difference for a full tread section (A, B, C) is Da(%) = 40/L(mm).
A switchgear cabinet housing, which has a side wall or a vertical profile and a door element, which is attached to the side wall or to the vertical profile via at least one hinge arrangement, wherein the hinge arrangement has a first hinge half, which is attached to the vertical side wall delimiting a door opening or to the vertical profile of the switchgear cabinet housing, and a second hinge half, which is attached to the door element, wherein the hinge halves (2, 3) are connected to one another so as to be pivotable with respect to one another via an axis of rotation (x), such that, in a closed position, the door element closes the door opening and, in an open position, preferably completely releases it, and wherein the axis of rotation (x) is arranged outside an outer circumference both of the door opening and of the door element, wherein at least the second hinge half (2, 3) has a groove, via which the hinge half (2, 3) is plugged onto a projection on the outer circumference of that part of the switchgear cabinet housing and door element which is assigned to the hinge half (2, 3), wherein the second hinge half is clipped onto the outer circumference of the door element via the projection and is locked on the door element via a connecting bolt, and also has two bearing parts (3.1), each with a first through-hole (3.4) for receiving the connecting bolt, and furthermore a hinge bolt sleeve, which extends parallel to the through-holes (3.4), for receiving the axis of rotation (x), wherein the two bearing parts (3.1) are connected via a connecting web (3.2) at a distance (d) from one another to aligned first through-holes (3.4) and to the hinge bolt sleeve, and wherein the groove is formed between the bearing parts (3.1) and the connecting web (3.2), characterised in that the connecting bolt is guided through a fastening means on the door element side, which is an eye welded onto the outer circumference of the door element, and in that the groove is L-shaped, with a first groove section (6.1) between the connecting web (3.2) and a respective first bearing side (3.5) of the bearing parts (3.1) and with a second groove section (6.2) between the hinge bolt sleeve and a respective second bearing side (3.6) of the bearing parts (3.1).
A method for transmission leakage signal cancellation in analog domain, the method comprising: splitting an input signal into a plurality of signal paths, wherein the input signal is a copy of a transmission signal; complex weighting and delaying, for each signal path, a respective signal; summing outputs of the signal paths, and providing an output comprising the sum of the signal paths, wherein the output signal is fed forward to receiver paths to cancel transmission signal leakage, characterized in that the complex weighting and delaying are configured to independently control gain, phase and delay of the output signal over broadband, and in that the method further comprises: fractionally delaying each respective signal for each signal path, wherein a delay of each of the plurality of signal paths is selected individually for each of the plurality of signal paths. splitting an input signal into a plurality of signal paths, wherein the input signal is a copy of a transmission signal; complex weighting and delaying, for each signal path, a respective signal; summing outputs of the signal paths, and providing an output comprising the sum of the signal paths, wherein the output signal is fed forward to receiver paths to cancel transmission signal leakage, characterized in that the complex weighting and delaying are configured to independently control gain, phase and delay of the output signal over broadband, and in that the method further comprises: fractionally delaying each respective signal for each signal path, wherein a delay of each of the plurality of signal paths is selected individually for each of the plurality of signal paths.
A processing unit for processing a multi-channel audio signal comprising: a delay element for delaying an FM sum signal (sum) representing a sum of a first and a second audio signal; a converter arrangement for converting an FM difference signal (diff) representing a difference between the first and second audio signals to the frequency domain, and for converting a noise signal (diffnoise) representing noise in the FM difference signal to the frequency domain; a frequency-based noise suppression unit for suppressing noise in the difference signal (diff) to derive a de-noised frequency-domain difference signal (D1(ω)) on the basis of a gain function based at least on the frequency-domain noise signal amplitude, wherein the gain function is limited to a maximal and a minimal value; an inverse transform unit (T -1) for inversely transforming the de-noised difference signal (D1(ω)) or a signal derived from it (D2(ω)) to the time domain; and a de-matrixing unit for computing the first and second audio signals from the delayed sum signal and time domain difference signal (diff2). a delay element for delaying an FM sum signal (sum) representing a sum of a first and a second audio signal; a converter arrangement for converting an FM difference signal (diff) representing a difference between the first and second audio signals to the frequency domain, and for converting a noise signal (diffnoise) representing noise in the FM difference signal to the frequency domain; a frequency-based noise suppression unit for suppressing noise in the difference signal (diff) to derive a de-noised frequency-domain difference signal (D1(ω)) on the basis of a gain function based at least on the frequency-domain noise signal amplitude, wherein the gain function is limited to a maximal and a minimal value; an inverse transform unit (T -1) for inversely transforming the de-noised difference signal (D1(ω)) or a signal derived from it (D2(ω)) to the time domain; and a de-matrixing unit for computing the first and second audio signals from the delayed sum signal and time domain difference signal (diff2).
A genetically modified rodent, comprising in its genome: an unrearranged T cell receptor α variable gene locus comprising at least one human Vα segment and at least one human Jα segment, wherein the TCRα variable gene is operably linked to a rodent TCRα constant gene sequence, and/or an unrearranged TCRβ variable gene locus comprising at least one human Vβ segment, at least one human Dβ segment, and at least one human Jβ segment, wherein the unrearranged TCRβ variable gene is operably linked to a rodent TCRβ constant gene sequence, and wherein the unrearranged human T cell variable region gene segments are capable of rearranging to form genes that encode human T cell receptor variable domains, including domains that specifically bind an antigen of interest. an unrearranged T cell receptor α variable gene locus comprising at least one human Vα segment and at least one human Jα segment, wherein the TCRα variable gene is operably linked to a rodent TCRα constant gene sequence, and/or an unrearranged TCRβ variable gene locus comprising at least one human Vβ segment, at least one human Dβ segment, and at least one human Jβ segment, wherein the unrearranged TCRβ variable gene is operably linked to a rodent TCRβ constant gene sequence, and wherein the unrearranged human T cell variable region gene segments are capable of rearranging to form genes that encode human T cell receptor variable domains, including domains that specifically bind an antigen of interest.
A tissue removal system, comprising: an electrosurgical generator including an active electrode port and a return electrode port; an active electrode device configured to connect to the active electrode port; and a tissue guard including a body with a passageway configured to permit passage of instrumentation and tissue there-through, wherein the tissue guard comprises an electrically-insulative proximal portion, an at least partially electrically-conductive distal portion, and a cable configured to connect the at least partially electrically-conductive distal portion to the return electrode port, wherein an inwardly-facing surface of the tissue guard is at least partially electrically-conductive to provide a first electrically-conductive portion and a second electrically-conductive portion, said first and second electrically-conductive portions being configured to connect to the return electrode port. an electrosurgical generator including an active electrode port and a return electrode port; an active electrode device configured to connect to the active electrode port; and a tissue guard including a body with a passageway configured to permit passage of instrumentation and tissue there-through, wherein the tissue guard comprises an electrically-insulative proximal portion, an at least partially electrically-conductive distal portion, and a cable configured to connect the at least partially electrically-conductive distal portion to the return electrode port, wherein an inwardly-facing surface of the tissue guard is at least partially electrically-conductive to provide a first electrically-conductive portion and a second electrically-conductive portion, said first and second electrically-conductive portions being configured to connect to the return electrode port.