mhurhangee/ep-ind-claims huggingface dataset:
A surgical access device (400, 500, 600), comprising: a seal assembly including a cannula housing, an inner seal housing, and a seal cooperating with the inner seal housing, the cannula housing defining a central longitudinal axis and having a longitudinal passage for receiving at least one surgical object therethrough; and a bellows configured to engage at least a portion of the inner seal housing cooperating with the seal, the bellows dimensioned and adapted to establish a biasing relationship with the seal, said bellows being confined within an annular space between the cannula housing and inner seal housing, wherein the bellows extends to a proximal wall of the cannula housing in parallel to the central longitudinal axis defined by the cannula housing; wherein the seal is adapted for lateral movement relative to the central longitudinal axis of the cannula housing and the bellows is configured to be attached to the proximal wall of the cannula housing, wherein the proximal wall comprises an outer wall defined within a proximal end of the annular space, and a portion of the outer wall is configured to receive and secure a first end of the bellows as opposed to a side wall of the cannula housing. a seal assembly including a cannula housing, an inner seal housing, and a seal cooperating with the inner seal housing, the cannula housing defining a central longitudinal axis and having a longitudinal passage for receiving at least one surgical object therethrough; and a bellows configured to engage at least a portion of the inner seal housing cooperating with the seal, the bellows dimensioned and adapted to establish a biasing relationship with the seal, said bellows being confined within an annular space between the cannula housing and inner seal housing, wherein the bellows extends to a proximal wall of the cannula housing in parallel to the central longitudinal axis defined by the cannula housing; wherein the seal is adapted for lateral movement relative to the central longitudinal axis of the cannula housing and the bellows is configured to be attached to the proximal wall of the cannula housing, wherein the proximal wall comprises an outer wall defined within a proximal end of the annular space, and a portion of the outer wall is configured to receive and secure a first end of the bellows as opposed to a side wall of the cannula housing.
A method of operating a system comprising a differential mobility spectrometer, the method comprising: (a) injecting a stream of ions from an ion source into a differential mobility spectrometer during a first duration, the stream of ions containing or suspected of containing an ion species of interest; (b) determining a compensation voltage apex for the ion species of interest in the differential mobility spectrometer, wherein the compensation voltage apex represents an optimum for transmission of the ion species of interest based on operating conditions of the differential mobility spectrometer that are provided by a look-up table or wherein the compensation voltage apex for the ion species of interest is determined based on a theoretical optimum transmission compensation voltage; (c) continuously or discretely in a stepwise fashion varying the compensation voltage applied to the differential mobility spectrometer over a range during said first duration between a first compensation voltage value less than said compensation voltage apex and a second compensation voltage value greater than said compensation voltage apex, wherein said range is selected to correspond to the full-width at half maximum of theoretical or historical data of the intensity of the ion species of interest at the compensation voltage apex; (d) detecting the ion species of interest transmitted by the differential mobility spectrometer during said first duration. (a) injecting a stream of ions from an ion source into a differential mobility spectrometer during a first duration, the stream of ions containing or suspected of containing an ion species of interest; (b) determining a compensation voltage apex for the ion species of interest in the differential mobility spectrometer, wherein the compensation voltage apex represents an optimum for transmission of the ion species of interest based on operating conditions of the differential mobility spectrometer that are provided by a look-up table or wherein the compensation voltage apex for the ion species of interest is determined based on a theoretical optimum transmission compensation voltage; (c) continuously or discretely in a stepwise fashion varying the compensation voltage applied to the differential mobility spectrometer over a range during said first duration between a first compensation voltage value less than said compensation voltage apex and a second compensation voltage value greater than said compensation voltage apex, wherein said range is selected to correspond to the full-width at half maximum of theoretical or historical data of the intensity of the ion species of interest at the compensation voltage apex; (d) detecting the ion species of interest transmitted by the differential mobility spectrometer during said first duration.
Gas turbine comprising: • a guide vane comprising a vane platform and a vane airfoil connected to said vane platform; and • a guide vane carrier comprising a groove extending in a circumferential direction of the gas turbine and adapted to house a correspondent elongated hook of the vane platform; wherein said guide vane further comprises a first projecting pad and a second projecting pad located at circumferentially spaced distal ends (411, 412) of a radially outer side of said elongated hook, projecting radially outwardly from the outer side and arranged to abut against the guide vane carrier groove; the gas turbine being characterised in that said projecting pads (42, 43) are shaped round in axial direction of the gas turbine. • a guide vane comprising a vane platform and a vane airfoil connected to said vane platform; and • a guide vane carrier comprising a groove extending in a circumferential direction of the gas turbine and adapted to house a correspondent elongated hook of the vane platform;
A method (2900, 3000) of wireless communication by a first wireless device, comprising: determining (2905, 3005) a data link attribute for scheduling a data link with a second wireless device, characterized in that the data link attribute comprises a control field comprising an availability map indicator that indicates whether a map control field and an availability map are present in the data link attribute, the availability map indicating an availability of the first wireless device for the data link; the method further comprising transmitting (2910, 3010) the determined data link attribute in a frame to the second wireless device. determining (2905, 3005) a data link attribute for scheduling a data link with a second wireless device, characterized in that the data link attribute comprises a control field comprising an availability map indicator that indicates whether a map control field and an availability map are present in the data link attribute, the availability map indicating an availability of the first wireless device for the data link; the method further comprising transmitting (2910, 3010) the determined data link attribute in a frame to the second wireless device.
A method for robotic programming by training, wherein a real item is replaced by a virtual item for the training of the robot, comprising during robotic programming: - identifying the virtual item replacing the real item for the training of the robot, via reading a marker replacing the real item, wherein the virtual item is used during programming of a robot, and the marker corresponds to the virtual item; - displaying the virtual item replacing the real item for the training of the robot to a user during programming of the robot; - detecting an interaction between a first data model of the virtual item and a second data model of any one or combination of following items: - the robot, - at least one another virtual item used during programming of the robot, and - at least one physical item used during programming of the robot; - displaying the interaction to the user. - identifying the virtual item replacing the real item for the training of the robot, via reading a marker replacing the real item, wherein the virtual item is used during programming of a robot, and the marker corresponds to the virtual item; - displaying the virtual item replacing the real item for the training of the robot to a user during programming of the robot; - detecting an interaction between a first data model of the virtual item and a second data model of any one or combination of following items: - the robot, - at least one another virtual item used during programming of the robot, and - at least one physical item used during programming of the robot; - the robot, - at least one another virtual item used during programming of the robot, and - at least one physical item used during programming of the robot; - displaying the interaction to the user.
System for determining the position of a communication platform, having a first communication platform; and a second communication platform; wherein the first communication platform is in communication connection with the second communication platform; wherein the communication connection is formed as a focused communication connection; wherein the system is embodied to determine the direction of the focusing of the communication connection; and wherein the system is embodied to determine a position of the second communication platform by means of the determined direction of the focusing of the communication connection and a determined position of the first communication platform, wherein the first communication platform is an Earth-remote platform; and wherein the system is embodied to detect, by means of evaluating a reception power level of the communication connection, to what extent the second communication platform is located in the centre of or at the edge of a propagation volume of the communication connection; characterized in that the communication connection is a laser communication connection; and in that the system is embodied to determine the position of the second communication platform in the propagation volume of the laser communication connection by means of dynamic local scanning methods; and the system is embodied to carry out a time synchronization of an emitted communication signal between first communication platform and second communication platform, and, by means of the propagation time and the propagation speed of the communication connection, to determine a distance between first communication platform and second communication platform and to determine a three-dimensional position of the second communication platform in the propagation volume of the laser communication connection. a first communication platform; and a second communication platform; wherein the first communication platform is in communication connection with the second communication platform; wherein the communication connection is formed as a focused communication connection; wherein the system is embodied to determine the direction of the focusing of the communication connection; and wherein the system is embodied to determine a position of the second communication platform by means of the determined direction of the focusing of the communication connection and a determined position of the first communication platform, wherein the first communication platform is an Earth-remote platform; and wherein the system is embodied to detect, by means of evaluating a reception power level of the communication connection, to what extent the second communication platform is located in the centre of or at the edge of a propagation volume of the communication connection;
An audio processor for processing a subband representation of an audio signal to obtain the audio signal, the audio processor comprising: an inverse time domain aliasing reduction stage configured to perform a weighted combination of a first aliasing reduced subband representation of the audio signal and a second aliasing reduced subband representation of the audio signal, to obtain an aliased subband representation, wherein the aliased subband representation is a set (110_1,1) of subband samples; and a cascaded inverse lapped critically sampled transform stage configured to perform a cascaded inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of samples associated with a block of samples of the audio signal; wherein the cascaded inverse lapped critically sampled transform stage comprises a first inverse lapped critically sampled transform stage configured to perform an inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of bins (128_1,1) associated with a given subband of the audio signal; and a first overlap and add stage configured to perform a concatenation of sets of bins associated with a plurality of subbands of the audio signal, which comprises a weighted combination of the set (128_1,1) of bins associated with the given subband of the audio signal with a set (128_1,2) of bins associated with another subband of the audio signal, to obtain a set (124_1) of bins associated with a block of samples of the audio signal. an inverse time domain aliasing reduction stage configured to perform a weighted combination of a first aliasing reduced subband representation of the audio signal and a second aliasing reduced subband representation of the audio signal, to obtain an aliased subband representation, wherein the aliased subband representation is a set (110_1,1) of subband samples; and a cascaded inverse lapped critically sampled transform stage configured to perform a cascaded inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of samples associated with a block of samples of the audio signal; wherein the cascaded inverse lapped critically sampled transform stage comprises a first inverse lapped critically sampled transform stage configured to perform an inverse lapped critically sampled transform on the set (110_1,1) of subband samples, to obtain a set of bins (128_1,1) associated with a given subband of the audio signal; and a first overlap and add stage configured to perform a concatenation of sets of bins associated with a plurality of subbands of the audio signal, which comprises a weighted combination of the set (128_1,1) of bins associated with the given subband of the audio signal with a set (128_1,2) of bins associated with another subband of the audio signal, to obtain a set (124_1) of bins associated with a block of samples of the audio signal.
A steering device for a vehicle, in particular a transport cart, comprising at least one steering element and a transferring apparatus (31, 39, 47, 51) for transferring a steering motion of the steering element to at least one first wheel, wherein the first wheel is supported in such a way that the first wheel can be turned about at least one first steering axis and can be rotated about at least one first axis of rotation extending perpendicularly to the first steering axis, and the transferring apparatus has at least one first first gear which is mechanically operatively connected to the steering element and having at least one noncircular arrangement of teeth, and at least one first second gear which is mechanically operatively connected to the first wheel and which comprises a noncircular arrangement of teeth complementary to the noncircular arrangement of teeth of the first first gear, wherein a motion of the steering element from a position corresponding to straight-ahead travel of the vehicle to a position corresponding to cornering of the vehicle in the direction of a first angle (α) leads to a turning of the first wheel about the first steering axis by a first second angle (γ) from a position of the first wheel corresponding to the straight-ahead travel of the vehicle, wherein the first angle (α) and the first second angle (γ) are linked to each other by means of at least one first transfer function and the first transfer function for a first angular range of the first angle (α) constitutes a first trigonometric function, characterized in that the first transfer function for a second angular range of the first angle (α) constitutes a first polynomial of the nth degree, with n ≥ 2.
An improver composition comprising a phospholipase having a phospholipase A1 activity / phospholipase A2 activity ratio ranging between 0.01 and 100, preferably ranging between 0.01 and 80, more preferably ranging between 0.01 and 50, more preferably ranging between 0.01 and 25, more preferably ranging between 0.01 and 10, even more preferably ranging between 1 and 10, when measured as described in Example 1; and having a phospholipase optimum temperature of 45°C or more, wherein the improver is a bread improver composition or a patisserie mix or premix; wherein said phospholipase has a sequence identity of at least 85% with any of SEQ ID NO 1, SEQ ID NO 2, or SEQ ID NO 3.
A fabric treatment composition comprising a polymer and a fabric softening active: (i) wherein said polymer comprises: a cationic repeating unit and a non-cationic repeating unit; wherein said polymer has a weight-average molecular weight of from 40,000 to 600,000 Daltons, preferably from 50,000 to 550,000 Daltons, more preferably from 100,000 to 500,000 Daltons; wherein said polymer has a calculated cationic charge density of from 0.05 to 2 meq/g at a pH of between 2 and 8; wherein said polymer comprises less than 0.1% by mole of a cross-linking agent, preferably less than 0.05% by mole of a cross-linking agent, more preferably less than 0.01% by mole of a cross-linking agent; (ii) wherein said fabric softening active comprises a quaternary ammonium compound; and wherein said composition comprises less than 5% by weight of the composition of an anionic surfactant. (i) wherein said polymer comprises: a cationic repeating unit and a non-cationic repeating unit; wherein said polymer has a weight-average molecular weight of from 40,000 to 600,000 Daltons, preferably from 50,000 to 550,000 Daltons, more preferably from 100,000 to 500,000 Daltons; wherein said polymer has a calculated cationic charge density of from 0.05 to 2 meq/g at a pH of between 2 and 8; wherein said polymer comprises less than 0.1% by mole of a cross-linking agent, preferably less than 0.05% by mole of a cross-linking agent, more preferably less than 0.01% by mole of a cross-linking agent; a cationic repeating unit and a non-cationic repeating unit; wherein said polymer has a weight-average molecular weight of from 40,000 to 600,000 Daltons, preferably from 50,000 to 550,000 Daltons, more preferably from 100,000 to 500,000 Daltons; wherein said polymer has a calculated cationic charge density of from 0.05 to 2 meq/g at a pH of between 2 and 8; wherein said polymer comprises less than 0.1% by mole of a cross-linking agent, preferably less than 0.05% by mole of a cross-linking agent, more preferably less than 0.01% by mole of a cross-linking agent; (ii) wherein said fabric softening active comprises a quaternary ammonium compound; and
A fault protection method for an inter-domain link between network element ports in different domains of a multi-domain network, using link protection group information relating to at least a first link protection group, comprising a first inter-domain link between respective network element ports configured for an inter-domain service and a second inter-domain link between respective network element ports, wherein the link protection group information is stored in an OSS storage in an OSS, Operation Support System,, the fault protection method is performed by the OSS and comprises the steps of: determining a fault in the first inter-domain link; identifying the second inter-domain link from the link protection group information stored in the OSS storage in the OSS; and reconfiguring routing of the inter-domain service from the respective network element ports of the first inter-domain link to the respective network element ports of the identified second inter-domain link. determining a fault in the first inter-domain link; identifying the second inter-domain link from the link protection group information stored in the OSS storage in the OSS; and reconfiguring routing of the inter-domain service from the respective network element ports of the first inter-domain link to the respective network element ports of the identified second inter-domain link.
A wireless communication method, comprising: determining, by a first network node, that a maximum integrity protection enabled data rate capability of a user equipment has been or will be exceeded; and transmitting, by the first network node to a second network node, a message indicating to the second network node that the maximum integrity protection enabled data rate capability has been or will be exceeded, wherein the message indicates a rejection of a request received from the second network node for a PDU session addition configured with integrity protection. determining, by a first network node, that a maximum integrity protection enabled data rate capability of a user equipment has been or will be exceeded; and transmitting, by the first network node to a second network node, a message indicating to the second network node that the maximum integrity protection enabled data rate capability has been or will be exceeded, wherein the message indicates a rejection of a request received from the second network node for a PDU session addition configured with integrity protection.
An anhydrous powder-based cosmetic composition for application to skin, said composition comprising: (a) one or more cosmetically acceptable particulates, said cosmetically acceptable particulates being naturally hydrophobic or coated with a hydrophobic material; (b) at least one binder for the particulates of the powder-based cosmetic composition; and (c) a film-forming, oil-absorbing polymer having an affinity for sebum secreted from skin, wherein the oil-absorbing polymer is a heteropolymer having a protein backbone with lipophilic sidechains. (a) one or more cosmetically acceptable particulates, said cosmetically acceptable particulates being naturally hydrophobic or coated with a hydrophobic material; (b) at least one binder for the particulates of the powder-based cosmetic composition; and (c) a film-forming, oil-absorbing polymer having an affinity for sebum secreted from skin, wherein the oil-absorbing polymer is a heteropolymer having a protein backbone with lipophilic sidechains.
A method for manufacture of -5-( -2-pyrrolidin-3-ylvinyl)pyrimidine comprising: (a) treating compound 1 with methanesulfonyl chloride to give compound 2; (b) treating compound 2 with diethylmalonate and a suitable base to give compound 3; (c) hydrolyzing compound 3 to give compound 4; (d) decarboxylating compound 4 to give compound 5; (e) reducing compound 5 to give compound 6; (f) treating compound 6 with methanesulfonyl chloride to give compound 7; (g) reacting compound 7 with sodium iodide to give compound 8; and (h) treating compound 8 with potassium tert-butoxide to give compound 9 (a) treating compound 1 with methanesulfonyl chloride to give compound 2; (b) treating compound 2 with diethylmalonate and a suitable base to give compound 3; (c) hydrolyzing compound 3 to give compound 4; (d) decarboxylating compound 4 to give compound 5; (e) reducing compound 5 to give compound 6; (f) treating compound 6 with methanesulfonyl chloride to give compound 7; (g) reacting compound 7 with sodium iodide to give compound 8; and (h) treating compound 8 with potassium tert-butoxide to give compound 9