mhurhangee/ep-ind-claims huggingface dataset:
A grading method for knitted products, utilizing a grading system programmed and configured to convert graphical pattern data (10, 20, 42) of knitted products to knit data (15, 25, 35) for driving knitting machines and generating knit data (15, 25, 35) of knitted products for other sizes from graphical pattern data (10, 20, 42) of knitted products for at least two sizes, being characterized in that the following steps are performed by the grading system: a: converting graphical pattern data (10, 20, 42) of at least two sizes of knitted products to be graded to knit data (15, 25, 35); b: generating, from the knit data (15, 25, 35) or during the generation of the knit data (15, 25, 35) for said at least two sizes converted in step a, characteristic points specifying shapes of the knitted products, automatically or interactively based upon user's inputs; c: generating intermediate shapes specifying shapes of the knitted products connecting the characteristic points, automatically or interactively based upon user's inputs; d: interpolating or extrapolating the characteristic points and the intermediate shapes according to a desired size of the knitted products so as to generate characteristic points and intermediate shapes for the desired size; e: generating closed loops by connecting the characteristic points and the intermediate shapes for the desired size; and f: generating knit data (15, 25, 35) for the desired size so as to allocate knitted stitches within patterns specified by the closed loops. a: converting graphical pattern data (10, 20, 42) of at least two sizes of knitted products to be graded to knit data (15, 25, 35); b: generating, from the knit data (15, 25, 35) or during the generation of the knit data (15, 25, 35) for said at least two sizes converted in step a, characteristic points specifying shapes of the knitted products, automatically or interactively based upon user's inputs; c: generating intermediate shapes specifying shapes of the knitted products connecting the characteristic points, automatically or interactively based upon user's inputs; d: interpolating or extrapolating the characteristic points and the intermediate shapes according to a desired size of the knitted products so as to generate characteristic points and intermediate shapes for the desired size; e: generating closed loops by connecting the characteristic points and the intermediate shapes for the desired size; and f: generating knit data (15, 25, 35) for the desired size so as to allocate knitted stitches within patterns specified by the closed loops.
A helmet comprising: an upper-body comprising an upper energy-absorbing material comprising expanded polypropylene, expanded polystyrene, expanded polyurethane, or expanded polyolefin,; a lower-body comprising a lower energy-absorbing material comprising EPP, EPS, EPU, or EPO, wherein the lower-body is nested within the upper-body; and a strap anchor and a strap coupled to the strap anchor for coupling the helmet to a head of a user characterised in that the strap anchor is formed without a web and embedded within the upper-body or the lower body and disposed between the upper-body and the lower-body and wherein the strap extends between the upper-body and the lower-body. an upper-body comprising an upper energy-absorbing material comprising expanded polypropylene, expanded polystyrene, expanded polyurethane, or expanded polyolefin,; a lower-body comprising a lower energy-absorbing material comprising EPP, EPS, EPU, or EPO, wherein the lower-body is nested within the upper-body; and a strap anchor and a strap coupled to the strap anchor for coupling the helmet to a head of a user characterised in that the strap anchor is formed without a web and embedded within the upper-body or the lower body and disposed between the upper-body and the lower-body and wherein the strap extends between the upper-body and the lower-body.
Bending machine for bending profiles, metal sheets and the like, comprising a structure or frame and a bending device, the bending device comprising three rollers (14, 16, 18), namely a first roller the axis (x 1) of which is fixed relative to the structure or frame and second and third rollers (16, 18) the axes (x 2, x 3) of which are movable relative to each other, and hence each relative to the axis (x 1) of the first roller, so as to define a curved path with an adjustable radius of curvature along which the material to be bent is caused to move passing between said rollers (14, 16, 18), the bending device further comprising an adjustment mechanism (42, 44, 46, 48, 52, 56, 58, 62, 66, 68) for adjusting the position of the axes (x 2, x 3) of the second and third rollers (16, 18) with two degrees of freedom, the adjustment mechanism (42, 44, 46, 48, 52, 56, 58, 62, 66, 68) comprising a pair of tilting arms (42, 44) supported so as to tilt about respective axes of rotation (x 4, x 5) oriented parallel to each other, and first adjustment means (46, 48, 52, 56, 58, 62) for adjusting the angular position of the tilting arms (42, 44) about the respective axes of rotation (x 4, x 5), the bending machine being characterized in that the tilting arms (42, 44) are hinged to the structure or frame, the respective axes of rotation (x 4, x 5) being fixed relative to the structure or frame, in that the axes (x 2, x 3) of the second and third rollers (16, 18) are guided each by a respective tilting arm (42, 44) along a respective direction of translation (y 1, y 2) which is fixed relative to the respective tilting arm (42, 44), and in that the adjustment mechanism (42, 44, 46, 48, 52, 56, 58, 62, 66, 68) further comprises second adjustment means (66, 68) for adjusting the linear position of the axes (x 2, x 3) of the second and third rollers (16, 18) along the respective directions of translation (y 1, y 2).
A base module of a network assembly, the base module comprising a logic unit configured to be connected to a communication bus for providing communication between the logic unit and one or more extension modules, in particular one or more functional devices and/or communication modules, for function extension or function provision of the network assembly, wherein the logic unit is configured to search via the communication bus for an extension module connected to the communication bus), wherein the logic unit is further configured to configure an extension module for the communication bus if the search results in the extension module being connected to the communication bus, and wherein the logic unit is configured such that communication via the communication bus between the logic unit and the expansion modules can take place via a system-internal communication protocol, characterised in that the logic unit has a plug & play interface for connecting a plug-and-play functional unit which can be directly controlled by the logic unit via control signals.
A method for controlling service transmission, comprising: receiving a connection request message sent by an user equipment that transmits a service, wherein the connection request message comprises user information of the user equipment, and obtaining status information that is used to indicate service status of the service, wherein the status information comprises time information used to indicate the current time and/or bearer information used to indicate a current bearer network of the service; determining, according to the user information and the status information, value-added service system VAS information, wherein the VAS information is used to indicate at least one destination VAS of the service; receiving a first data packet of the service that is sent by a sending end; obtaining, according to the VAS information, a second data packet from the at least one destination VAS, wherein the second data packet is a data packet obtained after the at least one destination VAS performs value-added processing on the first data packet; and sending the second data packet to a receiving end. receiving a connection request message sent by an user equipment that transmits a service, wherein the connection request message comprises user information of the user equipment, and obtaining status information that is used to indicate service status of the service, wherein the status information comprises time information used to indicate the current time and/or bearer information used to indicate a current bearer network of the service; determining, according to the user information and the status information, value-added service system VAS information, wherein the VAS information is used to indicate at least one destination VAS of the service; receiving a first data packet of the service that is sent by a sending end; obtaining, according to the VAS information, a second data packet from the at least one destination VAS, wherein the second data packet is a data packet obtained after the at least one destination VAS performs value-added processing on the first data packet; and sending the second data packet to a receiving end.
User equipment, UE,, comprising: logic, at least a portion of which is in hardware, the logic to associate the UE with a small cell evolved node B, eNB, in a time-division duplex, TDD, small cell, identify, based on information received from the small cell eNB, a subframe during which communications are in an uplink, UL, direction according to a TDD configuration of the small cell and in which communications are in a downlink, DL, direction of a TDD configuration of an adjacent-channel macrocell during at least a portion of the subframe, receive one or more UL power control parameter values from the small cell eNB, wherein the UL power control parameter values are configured in order to implement an increased UL transmit power to mitigate interference caused by the communications in the DL direction, and, in response to identifying the subframe during which the communications are in the UL direction according to the TDD configuration of the small cell and in which the communications are in the DL direction of the TDD configuration of the adjacent-channel macrocell, implement the increased UL transmit power in the subframe. identify, based on information received from the small cell eNB, a subframe during which communications are in an uplink, UL, direction according to a TDD configuration of the small cell and in which communications are in a downlink, DL, direction of a TDD configuration of an adjacent-channel macrocell during at least a portion of the subframe, receive one or more UL power control parameter values from the small cell eNB, wherein the UL power control parameter values are configured in order to implement an increased UL transmit power to mitigate interference caused by the communications in the DL direction, and, in response to identifying the subframe during which the communications are in the UL direction according to the TDD configuration of the small cell and in which the communications are in the DL direction of the TDD configuration of the adjacent-channel macrocell, implement the increased UL transmit power in the subframe.
A therapeutic or prophylactic agent for use in the treatment and/or prophylaxis of a biliary tract disease(s), said agent comprising as an effective component a compound represented by General Formula below: [wherein the double line constituted by a dotted line and a solid line represents a double bond or single bond, R 1 represents C 4 -C 7 cycloalkylalkyl, R 2 represents C 1 -C 5 linear or branched alkyl, and B represents -CH=CH-] or a pharmaceutically acceptable acid addition salt thereof.
A device for ventilation consisting of at least one body that separates an interior space from an exterior region, a region for sealing the device against parts of a patient's face, fastening elements for positioning the device on the patient's head, and a connection for the supply of respiratory gas, wherein the device for ventilation has an adjusting element that, when adjusted, changes a distance of at least part of the device to at least one region of the patient's body, wherein the device has a forehead support, a forehead support carrier, and a forehead support shaft, wherein the forehead support shaft is integrated with the mask body, characterized in that the forehead support carrier has an arm that is slotted or divided and a resilient element with an adjusting knob, wherein the arm has lateral, curved rolling surfaces that are either smooth or toothed, wherein the adjusting element comprises the resilient element with the adjusting knob and the lateral rolling surfaces, wherein an adjustability of the forehead support is enabled by the lateral, curved rolling surfaces on the slotted or divided arm of the forehead support carrier rolling on a corresponding smooth or toothed surface on the outside of the forehead support shaft, and the rolling movement is fixed or blocked by a geometry in which the resilient element has detent lugs that block the rolling movement in that they snap into various grooves in the forehead support shaft and thus fix the forehead support in the desired position:
A method of operating a server for determining the model of a mobile terminal in a wireless network, said method comprising: i) generating a unique identifier associated with the mobile subscriber identity of the mobile terminal, and storing the unique identifier with the mobile subscriber identity, the unique identifier being a Universally Unique Identifier, UUID; ii) sending a message to the mobile terminal using the mobile subscriber identity, wherein the message comprises the unique identifier; iii) receiving an HTTP request from the mobile terminal in response to the sent message, said resource request comprising a user agent header and the unique identifier; iv) determining a mobile terminal model, comprising a model number, from said user agent header and associating it with the mobile subscriber identity of the mobile terminal using the unique identifier; and v) providing a service to the mobile terminal in dependence on the model number. i) generating a unique identifier associated with the mobile subscriber identity of the mobile terminal, and storing the unique identifier with the mobile subscriber identity, the unique identifier being a Universally Unique Identifier, UUID; ii) sending a message to the mobile terminal using the mobile subscriber identity, wherein the message comprises the unique identifier; iii) receiving an HTTP request from the mobile terminal in response to the sent message, said resource request comprising a user agent header and the unique identifier; iv) determining a mobile terminal model, comprising a model number, from said user agent header and associating it with the mobile subscriber identity of the mobile terminal using the unique identifier; and v) providing a service to the mobile terminal in dependence on the model number.
A strainer cartridge for a drain system, the strainer cartridge comprising: a stopper head having a seal device to sealingly engage the drain system when the strainer cartridge is moved from a drain position to a plug position; and a strainer to strain at least a portion of a flow of fluid passing through the drain system when the strainer cartridge is installed and the stopper head is in the drain position, the strainer detachably coupled to the stopper head to facilitate replacement of the strainer with a replacement strainer, wherein the stopper head includes at least one actuatable element to selectively release the strainer from the stopper head, characterized in that the at least one actuatable element of the stopper head comprises a pair of spring-biased latches biased away from each other, the pair of latches configured to engage the strainer when in an expanded position and to release the strainer from the stopper head when the pair of latches are moved from the expanded position to a compressed position. a stopper head having a seal device to sealingly engage the drain system when the strainer cartridge is moved from a drain position to a plug position; and a strainer to strain at least a portion of a flow of fluid passing through the drain system when the strainer cartridge is installed and the stopper head is in the drain position, the strainer detachably coupled to the stopper head to facilitate replacement of the strainer with a replacement strainer, wherein the stopper head includes at least one actuatable element to selectively release the strainer from the stopper head, characterized in that
An ink jet recording method, comprising: a step of jetting, on a substrate, an ink composition A that contains a microcapsule having at least a polymerizable compound within the microcapsule, a high boiling solvent, water, and a colorant, and an ink composition B that contains a microcapsule having at least a polymerizable compound within the microcapsule, a high boiling solvent, water, and carbon black; and a step of heating the ink composition A and the ink composition B which have been jetted on the substrate, wherein absorbance ABS A of the ink composition A and absorbance ABS B of the ink composition B satisfy Formula, and a concentration M A of the high boiling solvent contained in the ink composition A and a concentration M B of the high boiling solvent in the ink composition B satisfy Formula, ABS A < ABS B M A < M B in Formula, ABS A and ABS B respectively represent an average value of the absorbance of each of the ink composition A and the ink composition B in wavelengths of 800 nm to 1400 nm, and in Formula, M A or M B represents the concentration of the high boiling solvent contained in the ink composition A or the ink composition B with respect to a total mass of each ink composition on a mass basis, wherein the high boiling solvent means a solvent having a boiling point higher than 100°C. a step of jetting, on a substrate, an ink composition A that contains a microcapsule having at least a polymerizable compound within the microcapsule, a high boiling solvent, water, and a colorant, and an ink composition B that contains a microcapsule having at least a polymerizable compound within the microcapsule, a high boiling solvent, water, and carbon black; and a step of heating the ink composition A and the ink composition B which have been jetted on the substrate, wherein absorbance ABS A of the ink composition A and absorbance ABS B of the ink composition B satisfy Formula, and a concentration M A of the high boiling solvent contained in the ink composition A and a concentration M B of the high boiling solvent in the ink composition B satisfy Formula, ABS A < ABS B M A < M B in Formula, ABS A and ABS B respectively represent an average value of the absorbance of each of the ink composition A and the ink composition B in wavelengths of 800 nm to 1400 nm, and in Formula, M A or M B represents the concentration of the high boiling solvent contained in the ink composition A or the ink composition B with respect to a total mass of each ink composition on a mass basis, wherein the high boiling solvent means a solvent having a boiling point higher than 100°C.
A surgical stapler comprising: (a) a first elongate member having a distal portion that supports an anvil surface, wherein the anvil surface includes a plurality of staple forming pockets; (b) a second elongate member having a distal portion configured to receive a staple cartridge; (c) a clamp member operable to releasably clamp the first elongate member against the second elongate member; (d) a firing assembly, wherein the firing assembly is translatable from a first longitudinal position to a second longitudinal position to fire the staple cartridge when the first elongate member is clamped against the second elongate member; and (e) a retaining assembly, wherein the retaining assembly comprises: (i) a first retaining member configured to releasably couple a proximal end of the first elongate member with a proximal end of the second elongate member, and (ii) a second retaining member configured to releasably retain the firing assembly in the first longitudinal position, characterised in that the first retaining member is configured to rotate in a first direction to release the proximal end of the first elongate member from the proximal end of the second elongate member, wherein the second retaining member is configured to rotate in a second direction to release the firing assembly from the first longitudinal position, wherein the first retaining member comprises a latch member, wherein the second retaining member comprises a detent member. (a) a first elongate member having a distal portion that supports an anvil surface, wherein the anvil surface includes a plurality of staple forming pockets; (b) a second elongate member having a distal portion configured to receive a staple cartridge; (c) a clamp member operable to releasably clamp the first elongate member against the second elongate member; (d) a firing assembly, wherein the firing assembly is translatable from a first longitudinal position to a second longitudinal position to fire the staple cartridge when the first elongate member is clamped against the second elongate member; and (e) a retaining assembly, wherein the retaining assembly comprises: (i) a first retaining member configured to releasably couple a proximal end of the first elongate member with a proximal end of the second elongate member, and (ii) a second retaining member configured to releasably retain the firing assembly in the first longitudinal position, (i) a first retaining member configured to releasably couple a proximal end of the first elongate member with a proximal end of the second elongate member, and (ii) a second retaining member configured to releasably retain the firing assembly in the first longitudinal position,
Method for transferring data and information enabling an estimate of a wireless link between a source (Src) and at least one receiver (Rec) using single carrier orthogonal frequency division multiplex scheme, wherein the method comprises the steps, executed for a given number of orthogonal frequency division multiplex modulated symbols (Sy1 to Sy16), of: - time shifting at least one pilot sequence by half a sampling period, - forming one hybrid symbol (Syl) which is composed of the at least one time shifted pilot sequence by a half sampling period and of discrete Fourier transformed data, the at least one time shifted pilot sequence by a half sampling period being mapped every other subcarriers on which the hybrid symbol is mapped, the discrete Fourier transform data being mapped on subcarriers comprised between two subcarriers on which the at least one time shifted pilot sequence by a half sampling period is mapped, at least one pilot sequence having the property that the variations of amplitudes obtained after performing a discrete Fourier transform over said at least one pilot sequence are limited, - forming the other symbols (Sy2 to Sy6) by discrete Fourier transformed data only, - performing an orthogonal frequency division multiplex modulation of the symbols in order to form the orthogonal frequency division multiplex modulated symbols, - transferring the orthogonal frequency division multiplex modulated symbols. - time shifting at least one pilot sequence by half a sampling period, - forming one hybrid symbol (Syl) which is composed of the at least one time shifted pilot sequence by a half sampling period and of discrete Fourier transformed data, the at least one time shifted pilot sequence by a half sampling period being mapped every other subcarriers on which the hybrid symbol is mapped, the discrete Fourier transform data being mapped on subcarriers comprised between two subcarriers on which the at least one time shifted pilot sequence by a half sampling period is mapped, at least one pilot sequence having the property that the variations of amplitudes obtained after performing a discrete Fourier transform over said at least one pilot sequence are limited, - forming the other symbols (Sy2 to Sy6) by discrete Fourier transformed data only, - performing an orthogonal frequency division multiplex modulation of the symbols in order to form the orthogonal frequency division multiplex modulated symbols, - transferring the orthogonal frequency division multiplex modulated symbols.