mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for increasing the channel capacity of a bandwidth limited communications path, comprising: a plurality of oscillators (LO1-LO4) for generating a plurality of different carrier signals, each carrier signal having a different frequency and each carrier signal being modulated by a multibit information signal (txbit) having a predetermined symbol period T, the bandwidth of said bandwidth limited communications path being less than a summation of the plurality of carrier signal bandwidths, a plurality of separate transmit feedback loops to which each modulated carrier signal is applied, said transmit feedback loops providing a first level of positive feedback to each modulated carrier signal and a second level of positive feedback to signals interfering with said modulated carrier signals, said second level of positive feedback being less than said first level of positive feedback, and a reset pulse generator for opening each separate feedback loop at least once each symbol period T to prevent unwanted oscillation within said feedback loop. a plurality of oscillators (LO1-LO4) for generating a plurality of different carrier signals, each carrier signal having a different frequency and each carrier signal being modulated by a multibit information signal (txbit) having a predetermined symbol period T, the bandwidth of said bandwidth limited communications path being less than a summation of the plurality of carrier signal bandwidths, a plurality of separate transmit feedback loops to which each modulated carrier signal is applied, said transmit feedback loops providing a first level of positive feedback to each modulated carrier signal and a second level of positive feedback to signals interfering with said modulated carrier signals, said second level of positive feedback being less than said first level of positive feedback, and a reset pulse generator for opening each separate feedback loop at least once each symbol period T to prevent unwanted oscillation within said feedback loop.
A connector assembly for a dock, the connector assembly comprising: a support for coupling to an inner wall of the dock; and a charging connector received in the support and movable relative to the dock to come into contact with a mating connector of a portable electronic device, for charging the portable electronic device when the charging connector extends through an aperture of the dock, the aperture defined in a wall of the dock defining a seat for receiving an edge surface of the portable electronic device, wiring extending from the charging connector for electrically communicating the charging connector with a power source; the charging connector being moveable relative to the dock in an axial z-direction through the aperture in response to a magnetic force, wherein: the charging connector comprises a sleeve at least partly surrounding electrical contacts of the charging connector, the sleeve comprising one of a magnet or a ferrous material separated from the electrical contacts by electrical insulation; the sleeve comprises an enlarged base that is larger than the aperture to limit movement in the axial z-direction of the charging connector through the aperture; the support and seat defining a cavity having side walls; and the sleeve and charging connector being slideable within the cavity and against the side walls of the cavity from an extended first position wherein a portion of the sleeve projects through the aperture and the enlarged base of the sleeve abuts an underside of the seat to a stowed second position wherein the portion of the sleeve does not project through the aperture. a support for coupling to an inner wall of the dock; and a charging connector received in the support and movable relative to the dock to come into contact with a mating connector of a portable electronic device, for charging the portable electronic device when the charging connector extends through an aperture of the dock, the aperture defined in a wall of the dock defining a seat for receiving an edge surface of the portable electronic device, wiring extending from the charging connector for electrically communicating the charging connector with a power source; the charging connector being moveable relative to the dock in an axial z-direction through the aperture in response to a magnetic force, the charging connector comprises a sleeve at least partly surrounding electrical contacts of the charging connector, the sleeve comprising one of a magnet or a ferrous material separated from the electrical contacts by electrical insulation; the sleeve comprises an enlarged base that is larger than the aperture to limit movement in the axial z-direction of the charging connector through the aperture; the support and seat defining a cavity having side walls; and the sleeve and charging connector being slideable within the cavity and against the side walls of the cavity from an extended first position wherein a portion of the sleeve projects through the aperture and the enlarged base of the sleeve abuts an underside of the seat to a stowed second position wherein the portion of the sleeve does not project through the aperture.
Method for producing a heatable media line, comprising a media line (10, 100), at least one line connector (17, 18) and at least two heating elements (2, 3), characterised in that - the media line (10, 100) is prefabricated with the heating elements (2, 3) continuously wound around it, wherein the heating elements (2, 3) are fastened or fixed to the media line (10, 100) by at least one fastening means, - the media line (10, 100) is cut, according to the specific application, to a first length (L R+H), which corresponds to the desired media line length (I R) plus an additional length (I z), which carries the heating element length (I H) required for winding around the at least one line connector (17, 18) and a transition region between the media line (10, 100) and the line connector (17, 18), - the fastening means in the media line section (12, 13, 112, 113) corresponding to the additional length (I Z) is removed, - the heating element (2, 3) is unwound from the media line section (12, 13, 112, 113) corresponding to the additional length (I Z), - the media line (10, 100) is cut to the desired media line length (I R) to form a second media line section (14, 114), - before or after the media line is cut for the second time, one of the heating elements (2, 3) is shortened, - the second media line section (14, 114) is connected to the at least one line connector (17, 18), and - the heating element (2, 3) that has not been shortened is wound around the at least one line connector (17, 18), wherein, for heating the at least one line connector (17, 18), only one of the heating elements (2, 3) is arranged thereon such that it surrounds it at least partially. - the media line (10, 100) is prefabricated with the heating elements (2, 3) continuously wound around it, wherein the heating elements (2, 3) are fastened or fixed to the media line (10, 100) by at least one fastening means, - the media line (10, 100) is cut, according to the specific application, to a first length (L R+H), which corresponds to the desired media line length (I R) plus an additional length (I z), which carries the heating element length (I H) required for winding around the at least one line connector (17, 18) and a transition region between the media line (10, 100) and the line connector (17, 18), - the fastening means in the media line section (12, 13, 112, 113) corresponding to the additional length (I Z) is removed, - the heating element (2, 3) is unwound from the media line section (12, 13, 112, 113) corresponding to the additional length (I Z), - the media line (10, 100) is cut to the desired media line length (I R) to form a second media line section (14, 114), - before or after the media line is cut for the second time, one of the heating elements (2, 3) is shortened, - the second media line section (14, 114) is connected to the at least one line connector (17, 18), and - the heating element (2, 3) that has not been shortened is wound around the at least one line connector (17, 18), wherein, for heating the at least one line connector (17, 18), only one of the heating elements (2, 3) is arranged thereon such that it surrounds it at least partially.
An accelerator pedal apparatus, comprising: a torque motor configured to generate operational reaction force corresponding to operation of an accelerator pedal; accelerator position detecting means configured to detect an accelerator opening rate of the accelerator pedal and output the accelerator opening rate to an upper device; and reaction force control means which are configured to apply the operational reaction force by controlling driving of the torque motor; wherein the reaction force control means is configured to apply the operational reaction force as controlling driving of the torque motor based on the accelerator opening rate when being commanded to apply the operational reaction force by the upper device, characterized in that the reaction force control means is configured to determine an estimated rotational angle of the torque motor based on the accelerator opening rate which is detected by the accelerator position detecting means and which is configured to perform control correction of driving of the torque motor based on the estimated rotational angle. a torque motor configured to generate operational reaction force corresponding to operation of an accelerator pedal; accelerator position detecting means configured to detect an accelerator opening rate of the accelerator pedal and output the accelerator opening rate to an upper device; and reaction force control means which are configured to apply the operational reaction force by controlling driving of the torque motor; wherein the reaction force control means is configured to apply the operational reaction force as controlling driving of the torque motor based on the accelerator opening rate when being commanded to apply the operational reaction force by the upper device, characterized in that the reaction force control means is configured to determine an estimated rotational angle of the torque motor based on the accelerator opening rate which is detected by the accelerator position detecting means and which is configured to perform control correction of driving of the torque motor based on the estimated rotational angle.
An amphibious unmanned aerial vehicle comprising: a fuselage having walls; separators (150, 160) within the fuselage forming separate battery, payload, and avionics compartments (120, 130, 140) within the fuselage, the compartments (120, 130, 140) comprising; mounting surfaces (122, 142) within the battery, payload, and avionics compartments (120, 140) for mounting a battery module, a payload module, and an avionics module within the fuselage; wherein the battery compartment comprises a drainage channel comprising at least one weep hole through the fuselage; the payload compartment comprises an open bottom; the avionics compartment comprises a drainage channel comprising at least one weep hole through the fuselage; the walls of the fuselage are constructed of a buoyant material such that the fuselage will float in water without wings attached; and the compartments are constructed to individually surround the battery module, the payload module, and the avionics electronics module, but wherein the compartments are not sealed from water intrusion, while battery, payload, and the avionics electronics components, and associated connectors and wiring are hermetically sealed such that the amphibious unmanned aerial vehicle is capable of landing on land and on water without damage to electrical and electronic components. a fuselage having walls; separators (150, 160) within the fuselage forming separate battery, payload, and avionics compartments (120, 130, 140) within the fuselage, the compartments (120, 130, 140) comprising; mounting surfaces (122, 142) within the battery, payload, and avionics compartments (120, 140) for mounting a battery module, a payload module, and an avionics module within the fuselage; wherein the battery compartment comprises a drainage channel comprising at least one weep hole through the fuselage; the payload compartment comprises an open bottom; the avionics compartment comprises a drainage channel comprising at least one weep hole through the fuselage; the walls of the fuselage are constructed of a buoyant material such that the fuselage will float in water without wings attached; and the compartments are constructed to individually surround the battery module, the payload module, and the avionics electronics module, but wherein the compartments are not sealed from water intrusion, while battery, payload, and the avionics electronics components, and associated connectors and wiring are hermetically sealed such that the amphibious unmanned aerial vehicle is capable of landing on land and on water without damage to electrical and electronic components.
A method for implementing a generic routing encapsulation, GRE, tunnel, comprising: sending, by an access point, AP, a first packet to a gateway, GW, wherein the first packet carries an address of the AP, and the first packet is used to instruct the GW to configure a GRE tunnel from the GW to the AP, wherein a source address of the GRE tunnel is an address of the GW, and a destination address of the GRE tunnel is the address of the AP; and receiving, by the AP, a second packet sent by the GW by using the GRE tunnel, wherein the second packet carries the address of the GW, and the second packet is used to instruct the AP to configure a second GRE tunnel from the AP to the GW sending, by an access point, AP, a first packet to a gateway, GW, wherein the first packet carries an address of the AP, and the first packet is used to instruct the GW to configure a GRE tunnel from the GW to the AP, wherein a source address of the GRE tunnel is an address of the GW, and a destination address of the GRE tunnel is the address of the AP; and receiving, by the AP, a second packet sent by the GW by using the GRE tunnel, wherein the second packet carries the address of the GW, and the second packet is used to instruct the AP to configure a second GRE tunnel from the AP to the GW
A process of retraction of sulcus, comprising the steps of: i. applying an elastomeric material, preferably a silicone material, a polyurethane material and/or a polyether material onto and/or at the vicinity of the boundary of a tooth and adjacent gingiva and/or sulcus, which elastomeric material expands during or after its curing reaction; ii. applying a cap onto said tooth, thereby forming a chamber over said.elastomeric material, wherein said chamber comprises as its walls the tooth, the cap and an outer section of said gingiva; whereby said chamber allows for the elastomeric material to expand into the sulcus, characterized in that - said cap is at least partially filled with a plastically deformable, especially malleable material when applied onto said tooth in step ii.; and/or that - said cap is deformable, especially under biting pressure. i. applying an elastomeric material, preferably a silicone material, a polyurethane material and/or a polyether material onto and/or at the vicinity of the boundary of a tooth and adjacent gingiva and/or sulcus, which elastomeric material expands during or after its curing reaction; ii. applying a cap onto said tooth, thereby forming a chamber over said.elastomeric material, wherein said chamber comprises as its walls the tooth, the cap and an outer section of said gingiva; - said cap is at least partially filled with a plastically deformable, especially malleable material when applied onto said tooth in step ii.; - said cap is deformable, especially under biting pressure.
Paliperidone palmitate for use in treating a psychiatric patient by a dosage regimen comprising: administering intramuscularly in the deltoid of a patient in need of treatment a first loading dose of from about 100mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate formulated in a sustained release formulation on the first day of treatment; administering intramuscularly in the deltoid muscle of the patient in need of treatment a second loading dose of from about 100 mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate formulated in a sustained release formulation on the 6 th to 10th day of treatment; and administering intramuscularly in the deltoid or gluteal muscle of the patient in need of treatment a maintenance dose of about 25 mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate in a sustained release formulation on the 34th to the 38th day of treatment; and wherein the sustained release formulation is an aqueous nanoparticle suspension. administering intramuscularly in the deltoid of a patient in need of treatment a first loading dose of from about 100mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate formulated in a sustained release formulation on the first day of treatment; administering intramuscularly in the deltoid muscle of the patient in need of treatment a second loading dose of from about 100 mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate formulated in a sustained release formulation on the 6 th to 10th day of treatment; and administering intramuscularly in the deltoid or gluteal muscle of the patient in need of treatment a maintenance dose of about 25 mg-eq. to about 150 mg-eq. of paliperidone as paliperidone palmitate in a sustained release formulation on the 34th to the 38th day of treatment; and wherein the sustained release formulation is an aqueous nanoparticle suspension.
A method for manufacturing a profile made of composite material having a cross section with three branches, with the following steps: - moving two opposite rims (2A, 2B) of a panel of sheet material toward one another such that these two opposite rims (2A, 2B) are juxtaposed in a juxtaposing direction; - moving a pair of jaws in translation in a direction perpendicular to the juxtaposing direction such that the pair of jaws is positioned on either side of said juxtaposed opposite rims (2A, 2B), this movement in translation of the pair of jaws being effected in the direction of a base; - simultaneously pressing the sheet material between the two jaws for the one part and between the jaws and the base for the other part; - completing the profile made of composite material by curing a matrix impregnating the sheet material. - moving two opposite rims (2A, 2B) of a panel of sheet material toward one another such that these two opposite rims (2A, 2B) are juxtaposed in a juxtaposing direction; - moving a pair of jaws in translation in a direction perpendicular to the juxtaposing direction such that the pair of jaws is positioned on either side of said juxtaposed opposite rims (2A, 2B), this movement in translation of the pair of jaws being effected in the direction of a base; - simultaneously pressing the sheet material between the two jaws for the one part and between the jaws and the base for the other part; - completing the profile made of composite material by curing a matrix impregnating the sheet material.
A method for producing a fiber-plastic composite reference body for simulating a delamination for the nondestructive testing of FPC components, in particular aircraft components, with the following steps: i. Producing a first insert for the FPC reference body by a. arranging a first FPC layer; b. forming a recess in the first FPC layer; c. precuring the first FPC layer to obtain the first insert for the FPC reference body; ii. Producing a second insert for the FPC reference body by a. arranging a second FPC layer; b. precuring the second FPC layer to obtain the second insert for the FPC reference body; iii. Providing at least one first FPC film with a first clearance and at least one second FPC film with a second clearance; iv. Inserting the first insert into the first clearance of the first FPC film and inserting the second insert into the second clearance of the second FPC film; v. Curing the arrangement comprised of the first FPC film with the first insert and the second FPC film with the second insert, wherein a delamination is simulated at the recess in the first FPC layer of the first insert. i. Producing a first insert for the FPC reference body by a. arranging a first FPC layer; b. forming a recess in the first FPC layer; c. precuring the first FPC layer to obtain the first insert for the FPC reference body; a. arranging a first FPC layer; b. forming a recess in the first FPC layer; c. precuring the first FPC layer to obtain the first insert for the FPC reference body; ii. Producing a second insert for the FPC reference body by a. arranging a second FPC layer; b. precuring the second FPC layer to obtain the second insert for the FPC reference body; a. arranging a second FPC layer; b. precuring the second FPC layer to obtain the second insert for the FPC reference body; iii. Providing at least one first FPC film with a first clearance and at least one second FPC film with a second clearance; iv. Inserting the first insert into the first clearance of the first FPC film and inserting the second insert into the second clearance of the second FPC film; v. Curing the arrangement comprised of the first FPC film with the first insert and the second FPC film with the second insert, wherein a delamination is simulated at the recess in the first FPC layer of the first insert.
A method comprising: determining respective execution activity patterns of one or more hosts of a networked system as having security interest; displaying the respective execution activity patterns of the one or more hosts of the networked system in one or more views of a user interface on one or more output devices, a view comprising a subgraph of nodes representing activity patterns of a host of the one or more hosts, edges between nodes are displayed in a spatial dimension and a time dimension, and the subgraph comprising an edge in the spatial dimension interconnecting nodes arising at a point in time at the host of the one or more hosts; enabling one or more elements in the user interface as selectable; and sending a command based on one or more selected elements of the user interface to respective security components running on the one or more hosts. determining respective execution activity patterns of one or more hosts of a networked system as having security interest; displaying the respective execution activity patterns of the one or more hosts of the networked system in one or more views of a user interface on one or more output devices, a view comprising a subgraph of nodes representing activity patterns of a host of the one or more hosts, edges between nodes are displayed in a spatial dimension and a time dimension, and the subgraph comprising an edge in the spatial dimension interconnecting nodes arising at a point in time at the host of the one or more hosts; enabling one or more elements in the user interface as selectable; and sending a command based on one or more selected elements of the user interface to respective security components running on the one or more hosts.