mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: (a) receiving a remote service link across a short-range wireless communications network, the service link corresponding to a service provided by a remote service provider, wherein the received remote service link is included in a data structure comprising an identifier of the service corresponding to the received remote service link, (b) determining whether the identifier corresponding to the received remote service link is the same as an identifier corresponding to an earlier stored remote service link; (c) replacing the earlier stored remote service link with the received remote service link when the identifier corresponding to the received remote service link is the same as an identifier corresponding to the earlier stored remote service link; and (d) displaying a representation of the received remote service link. (a) receiving a remote service link across a short-range wireless communications network, the service link corresponding to a service provided by a remote service provider, wherein the received remote service link is included in a data structure comprising an identifier of the service corresponding to the received remote service link, (b) determining whether the identifier corresponding to the received remote service link is the same as an identifier corresponding to an earlier stored remote service link; (c) replacing the earlier stored remote service link with the received remote service link when the identifier corresponding to the received remote service link is the same as an identifier corresponding to the earlier stored remote service link; and (d) displaying a representation of the received remote service link.
An apparatus for fabricating a composite item from a material placed on a layup form having large contours of up to about 50.8 cm (20 inches) positive radius, the apparatus comprising: means for determining a first location on the layup form to place the material; means for determining a second location on the layup form to stop placing the material; means for cutting the material to generate a first edge that substantially conforms to the layup form at the first location in response to the first edge being different from the layup form at the first location; means for tacking the first edge to the layup form at the first location; means for applying the material along a natural path of the layup form between the first location and the second location, wherein the material is urged outward from about a longitudinal centerline of the material by movement of a curved surface relative to the material; means for cutting the material to generate a second edge that substantially conforms to the layup form at the second location in response to approaching the second location; and means for applying a tackifier to the layup form in an area defined by the material being placed on the layup form substantially without applying the tackifier outside the area, the means for applying a tackifier being arranged to modulate the width of the tackifier applied to the layup form as the width of the material is modulated, wherein the means for applying the material includes a spring, the spring arranged to support the curved surface and configured to conform to the contours of the layup form. means for determining a first location on the layup form to place the material; means for determining a second location on the layup form to stop placing the material; means for cutting the material to generate a first edge that substantially conforms to the layup form at the first location in response to the first edge being different from the layup form at the first location; means for tacking the first edge to the layup form at the first location; means for applying the material along a natural path of the layup form between the first location and the second location, wherein the material is urged outward from about a longitudinal centerline of the material by movement of a curved surface relative to the material; means for cutting the material to generate a second edge that substantially conforms to the layup form at the second location in response to approaching the second location; and means for applying a tackifier to the layup form in an area defined by the material being placed on the layup form substantially without applying the tackifier outside the area, the means for applying a tackifier being arranged to modulate the width of the tackifier applied to the layup form as the width of the material is modulated, wherein the means for applying the material includes a spring, the spring arranged to support the curved surface and configured to conform to the contours of the layup form.
A protein having cellulose:xyloglucan endotransglucosylase activity comprising: (a) the amino acid sequence of any one of SEQ ID NOs: 2, 6 and 8; or (b) an amino acid sequence having at least 60% sequence identity to the sequence of any one of SEQ ID NOs: 2, 6 and 8, or (c) an amino acid sequence having at least 60% sequence identity to the sequence of SEQ ID NO: 2 from amino acid 22 to 280, or to the sequence of SEQ ID NO: 6 from amino acid 26 to 283, or to the sequence of SEQ ID NO: 8 from amino acid 29 to 287. (a) the amino acid sequence of any one of SEQ ID NOs: 2, 6 and 8; or (b) an amino acid sequence having at least 60% sequence identity to the sequence of any one of SEQ ID NOs: 2, 6 and 8, or (c) an amino acid sequence having at least 60% sequence identity to the sequence of SEQ ID NO: 2 from amino acid 22 to 280, or to the sequence of SEQ ID NO: 6 from amino acid 26 to 283, or to the sequence of SEQ ID NO: 8 from amino acid 29 to 287.
A wireless communications device comprising: a radio frequency, RF, component to receive a Request to Send, RTS, frame over a communications channel; a memory storing instructions, and processing circuitry coupled to the memory, the processing circuitry to implement the instructions to: process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field, the Duration field indicating: whether a Network Allocation Vector is set at the wireless communication device for at least one of two or more directional channels of the communications channel, or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication, wherein the indication indicates which at least part of the communications channel is detected to be busy. a radio frequency, RF, component to receive a Request to Send, RTS, frame over a communications channel; a memory storing instructions, and processing circuitry coupled to the memory, the processing circuitry to implement the instructions to: process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field, the Duration field indicating: whether a Network Allocation Vector is set at the wireless communication device for at least one of two or more directional channels of the communications channel, or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication, wherein the indication indicates which at least part of the communications channel is detected to be busy. process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field, the Duration field indicating: whether a Network Allocation Vector is set at the wireless communication device for at least one of two or more directional channels of the communications channel, or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication, wherein the indication indicates which at least part of the communications channel is detected to be busy.
A method for the attachment of a bolt element (100, 100') to a component of a composite material, such as a fiber reinforced plastic part or a fabric reinforced plastic part, wherein the bolt element (100, 100') has a head part having a contact surface (102, 102') and a shaft part extending away from the head part, the shaft part having a tip provided at its end remote from the head part, the tip merging into a thread cylinder optionally via a cylindrical region, wherein the bolt element (100, 100') is pressed with the tip to the fore against the component and the tip is pressed through the component until the side of the component adjacent the head part of the bolt element (100, 100') enters to contact the thread cylinder and the tip thereby generates a hole in the component and in that the bolt element (100, 100') is subsequently turned so that the thread of the thread cylinder forms an internal thread in the wall of the hole and in that the contact surface (102, 102') is brought into engagement against the said side of the component, characterized in that the component is heated, at least in the region of the piercing, to a matrix material dependent temperature at which the matrix material of the composite material does not melt but softens or becomes pasty, for example to a temperature of 260°C when the material is PA6.
A method for the manufacturing of a dental template from a 3D digital data, comprising: a. prior to a dental treatment, recording and digitizing a first three-dimensional data that represents the original anatomical structure of at least one tooth within the oral cavity of a patient, for generating a first virtual model that reflects the original anatomical structure of said at least one tooth; b. processing said first 3D data for generating a second virtual model that reflects the form of said at least one tooth after applying an optimal endodontics treatment as defined by medical practice parameters; c. generating a third virtual model of a dental template to be mounted on top of said at least one tooth according to said first and second virtual models, wherein said dental template includes a guiding path for achieving an optimal drilling angle required for the preparation of the tooth for an endodontics treatment as defined by the medical practice parameters, wherein the drilling angle is such that an access path, in an appropriate angle, to two root canals of the tooth pulp will be obtained; and d. manufacturing said dental template according to said third virtual model, such that a dental treatment can be applied to said at least one tooth with a dental tool via the guiding path of said dental template whenever said dental template is mounted on top of said at least one tooth, such that after finishing applying the dental treatment to the at least one tooth with the dental template an essentially optimal treated tooth is obtained. a. prior to a dental treatment, recording and digitizing a first three-dimensional data that represents the original anatomical structure of at least one tooth within the oral cavity of a patient, for generating a first virtual model that reflects the original anatomical structure of said at least one tooth; b. processing said first 3D data for generating a second virtual model that reflects the form of said at least one tooth after applying an optimal endodontics treatment as defined by medical practice parameters; c. generating a third virtual model of a dental template to be mounted on top of said at least one tooth according to said first and second virtual models, wherein said dental template includes a guiding path for achieving an optimal drilling angle required for the preparation of the tooth for an endodontics treatment as defined by the medical practice parameters, wherein the drilling angle is such that an access path, in an appropriate angle, to two root canals of the tooth pulp will be obtained; and d. manufacturing said dental template according to said third virtual model, such that a dental treatment can be applied to said at least one tooth with a dental tool via the guiding path of said dental template whenever said dental template is mounted on top of said at least one tooth, such that after finishing applying the dental treatment to the at least one tooth with the dental template an essentially optimal treated tooth is obtained.
A method of producing a sheet-shaped cell culture, the method comprising: a step of subjecting induced pluripotent stem cells to a myocardial cell derivation treatment to obtain a cell population including myocardial cells; a step of obtaining a cell population including the myocardial cells derived from the cell population obtained in the step, wherein the cell population further includes αSMA positive cells, CD31 positive cells, and TE-7 antigen positive cells and a step of culturing the cell population obtained in the step to form a sheet-shaped cell culture, including a step of inoculating the cell population on a culture substrate, a step of culturing the inoculated cells to form a sheet-shaped cell culture for five days in the absence of a ROCK inhibitor prior to isolating the sheet-shaped cell culture, and a step of isolating the thus formed sheet-shaped cell culture from the culture substrate, wherein the proportion of the number of the myocardial cells to the total number of cells in the cell population obtained in the step is 50% to 70%, and wherein the sheet-shaped cell culture expresses type I collagen, type III collagen, laminin α2, and laminin α4. a step of subjecting induced pluripotent stem cells to a myocardial cell derivation treatment to obtain a cell population including myocardial cells; a step of obtaining a cell population including the myocardial cells derived from the cell population obtained in the step, wherein the cell population further includes αSMA positive cells, CD31 positive cells, and TE-7 antigen positive cells and a step of culturing the cell population obtained in the step to form a sheet-shaped cell culture, including a step of inoculating the cell population on a culture substrate, a step of culturing the inoculated cells to form a sheet-shaped cell culture for five days in the absence of a ROCK inhibitor prior to isolating the sheet-shaped cell culture, and a step of isolating the thus formed sheet-shaped cell culture from the culture substrate, wherein the proportion of the number of the myocardial cells to the total number of cells in the cell population obtained in the step is 50% to 70%, and wherein the sheet-shaped cell culture expresses type I collagen, type III collagen, laminin α2, and laminin α4.
A firearm comprising: a mechanical firing mechanism; and an Electro Mechanical Fire Control (EMFC) apparatus for controlling firing of the firearm, comprising: a mechanical energy storing mechanism, configured to store mechanical energy which is produced by the mechanical firing mechanism, upon firing the firearm or by manual operation of the firearm, an electromagnet, configured to control the mechanical energy storing mechanism, wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules, wherein the apparatus is independent from the mechanical firing mechanism of the firearm, enabling the firearm to be operated normally even if the apparatus malfunctions or runs out of energy. a mechanical firing mechanism; and an Electro Mechanical Fire Control (EMFC) apparatus for controlling firing of the firearm, comprising: a mechanical energy storing mechanism, configured to store mechanical energy which is produced by the mechanical firing mechanism, upon firing the firearm or by manual operation of the firearm, an electromagnet, configured to control the mechanical energy storing mechanism, wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules, a mechanical energy storing mechanism, configured to store mechanical energy which is produced by the mechanical firing mechanism, upon firing the firearm or by manual operation of the firearm, an electromagnet, configured to control the mechanical energy storing mechanism, wherein the mechanical energy storing mechanism holds or releases the mechanical energy thereby to prevent or enable the firearm from firing; and a processor configured to activate or deactivate the electromagnet to control the operation of the mechanical energy storing mechanism according to preselected rules,
A fluoropolymer composition, comprising: at least one low molecular weight polytetrafluoroethylene (LPTFE), said LPTFE having a molecular weight that is sufficiently low that it has a first melt temperature (T m) of 335° C or less, as measured by differential scanning calorimetry and at least two melt processible fluoropolymers, comprising: a first melt-processible fluoropolymer; and a second melt-processible fluoropolymer, said second melt-processible fluoropolymer being chemically different from said first melt-processible fluoropolymer (MPF wherein said first and second melt-processible fluoropolymers are both selected from the group consisting of perfluoroalkyoxy, methylfluoroalkyoxy, ethylfluoroalkyoxy and fluorinated ethylene propylene, subject to the proviso that the fluoropolymer composition is not a topcoat that consists, in dry weight fractions, of 0.9 parts PTFE, 0.0265 parts PFA. 0.025 parts FEP, and 0.0485 parts LPTFE. at least one low molecular weight polytetrafluoroethylene (LPTFE), said LPTFE having a molecular weight that is sufficiently low that it has a first melt temperature (T m) of 335° C or less, as measured by differential scanning calorimetry and at least two melt processible fluoropolymers, comprising: a first melt-processible fluoropolymer; and a second melt-processible fluoropolymer, said second melt-processible fluoropolymer being chemically different from said first melt-processible fluoropolymer (MPF a first melt-processible fluoropolymer; and a second melt-processible fluoropolymer, said second melt-processible fluoropolymer being chemically different from said first melt-processible fluoropolymer (MPF wherein said first and second melt-processible fluoropolymers are both selected from the group consisting of perfluoroalkyoxy, methylfluoroalkyoxy, ethylfluoroalkyoxy and fluorinated ethylene propylene, 0.9 parts PTFE, 0.0265 parts PFA. 0.025 parts FEP, and 0.0485 parts LPTFE.
A process for converting methoxylated aromatic compounds having a methoxy group pendant from the aromatic ring, and optionally at least one other pendant group from the aromatic ring, and compositions comprising such methoxylated aromatic compounds, to phenol, benzene, toluene (methyl benzene), ethyl benzene, propyl benzene, xylenes ( ortho-, meta-, and para- dimethyl benzene compounds), and/or dialkyl substituted benzene compounds, comprising: a. contacting said methoxylated aromatic compounds and said compositions comprising methoxylated aromatic compounds with a catalyst and hydrogen in a reactor; and b. removing phenol, benzene, toluene (methyl benzene), ethyl benzene, propyl benzene, xylenes ( ortho-, meta-, and para- dimethyl benzene compounds), and/or dialkyl substituted benzene compounds from said reactor; wherein said catalyst comprises: i. a transition metal selected from the group consisting of Group 8 metals, Group 9 metals, Group 10 metals, Group 11 metals, and mixtures thereof; and ii. a catalyst support comprising ferrierite zeolite. a. contacting said methoxylated aromatic compounds and said compositions comprising methoxylated aromatic compounds with a catalyst and hydrogen in a reactor; and b. removing phenol, benzene, toluene (methyl benzene), ethyl benzene, propyl benzene, xylenes ( ortho-, meta-, and para- dimethyl benzene compounds), and/or dialkyl substituted benzene compounds from said reactor; i. a transition metal selected from the group consisting of Group 8 metals, Group 9 metals, Group 10 metals, Group 11 metals, and mixtures thereof; and ii. a catalyst support comprising ferrierite zeolite.
An electrode arrangement for use in a muscle state analyzer, said electrode arrangement comprising: - electrodes (310, 311, 320, 321, 330, 331, 332, 333, 340, 350, 351, 352, 353, 360, 370, 371, 372, 373, 380, 455, 465, 475, 482, 710) of conducting material arranged to make contact with the skin when said electrode arrangement is operated, said electrodes forming at least two pairs of electrodes for picking up a muscle signal, wherein a distance between electrodes in respective ones of the at least two pairs of electrodes is different, thereby creating a different depth sensitivity for respective pairs of the at least two pairs of electrodes, - an electrical insulator (315, 316, 325, 326, 335, 348, 354, 361, 374, 381, 484, 720) surrounding at least one of said electrodes, and - an earth body (375, 382, 458, 480, 730, 745) of a conducting material arranged to make contact with the skin when said electrode arrangement is operated, said earth body surrounding the electrical insulator and the electrodes together as at least two pairs, the earth body arranged to limit said at least two pairs of electrodes from picking up a signal from outside of the extent of said earth body, - said earth body (375, 382, 458, 480, 730, 745) arranged to essentially encompass electronics to receive and handle signals from said at least two pairs of electrodes. - electrodes (310, 311, 320, 321, 330, 331, 332, 333, 340, 350, 351, 352, 353, 360, 370, 371, 372, 373, 380, 455, 465, 475, 482, 710) of conducting material arranged to make contact with the skin when said electrode arrangement is operated, said electrodes forming at least two pairs of electrodes for picking up a muscle signal, wherein a distance between electrodes in respective ones of the at least two pairs of electrodes is different, thereby creating a different depth sensitivity for respective pairs of the at least two pairs of electrodes, - an electrical insulator (315, 316, 325, 326, 335, 348, 354, 361, 374, 381, 484, 720) surrounding at least one of said electrodes, and - an earth body (375, 382, 458, 480, 730, 745) of a conducting material arranged to make contact with the skin when said electrode arrangement is operated, said earth body surrounding the electrical insulator and the electrodes together as at least two pairs, the earth body arranged to limit said at least two pairs of electrodes from picking up a signal from outside of the extent of said earth body, - said earth body (375, 382, 458, 480, 730, 745) arranged to essentially encompass electronics to receive and handle signals from said at least two pairs of electrodes.