mhurhangee/patent-ind-claim-en huggingface dataset:
A water bottle cap assembly , comprising: at least one port , extending outwardly from an exterior surface of the cap, a multi-channel passage member for providing or receiving a fluid to an endoscopic device, wherein the multi-channel passage member includes an inner channel and a first and second c-shaped outer channel , wherein the port extends a predetermined length and is configured to engage the multi-channel passage member, a plurality of interior threads, configured to engage a plurality of external threads on a water bottle, an annular sealing platform , extending outwardly from an interior side wall of the cap, wherein the annular sealing platform comprises a substantial horizontal contact area , configured to provide a water-tight seal to a neck of a water bottle when the cap is engaging the water bottle, and a channel connector configured to couple the inner channel to a water passage disposed inside the water bottle cap for distributing water from the water bottle to the endoscopic device, wherein the first and second outer channels do not extend into the water bottle, and wherein the at least one port is configured to provide water to an endoscopic device through the inner channel and a pressurized air to the endoscopic device through at least one of the outer channels. at least one port , extending outwardly from an exterior surface of the cap, a multi-channel passage member for providing or receiving a fluid to an endoscopic device, wherein the multi-channel passage member includes an inner channel and a first and second c-shaped outer channel , wherein the port extends a predetermined length and is configured to engage the multi-channel passage member, a plurality of interior threads, configured to engage a plurality of external threads on a water bottle, an annular sealing platform , extending outwardly from an interior side wall of the cap, wherein the annular sealing platform comprises a substantial horizontal contact area , configured to provide a water-tight seal to a neck of a water bottle when the cap is engaging the water bottle, and a channel connector configured to couple the inner channel to a water passage disposed inside the water bottle cap for distributing water from the water bottle to the endoscopic device, wherein the first and second outer channels do not extend into the water bottle, and wherein the at least one port is configured to provide water to an endoscopic device through the inner channel and a pressurized air to the endoscopic device through at least one of the outer channels.
Material flow system for transporting goods, comprising components (K1-K5, m1-m7) for carrying out a transportation task, wherein a component (K1-K5, m1-m7) comprises: a) a mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) for transporting the goods (x, x1-x3, y, y1, z, z1-z3); b) a sensory system (SE1-SE5) for detecting states of the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and/or of the transported goods (x, x1-x3, y, y1, z, z1-z3) and/or of the surroundings; c) an actuator system (AK1, AK2) for mechanically influencing the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and/or the transported goods (x, x1-x3, y, y1, z, z1-z3); d) a control component (SK1-SK3) for controlling the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and the actuator system (AK1, AK2), based on the data supplied by the sensory system (SE1-SE5), to current installation state data (AZ1-AZ3) of the material flow system and to control parameters of the control component (SK1-SK3); e) interfaces with adjacent components (K1-K5, m1-m7) and with the surroundings, characterised in that f) the component (K1-K5, m1-m7) also comprises a dedicated internal simulator (ES1) integrated into the component, wherein the internal simulator (ES1) determines a future installation state (AZ3) from the data of adjacent simulators (ES2), from the loading plan (EP2) and a current installation state (AZ2) by simulation. a) a mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) for transporting the goods (x, x1-x3, y, y1, z, z1-z3); b) a sensory system (SE1-SE5) for detecting states of the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and/or of the transported goods (x, x1-x3, y, y1, z, z1-z3) and/or of the surroundings; c) an actuator system (AK1, AK2) for mechanically influencing the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and/or the transported goods (x, x1-x3, y, y1, z, z1-z3); d) a control component (SK1-SK3) for controlling the mechanical element (FB1-FB10, W1-W4, ZU1-ZU3) and the actuator system (AK1, AK2), based on the data supplied by the sensory system (SE1-SE5), to current installation state data (AZ1-AZ3) of the material flow system and to control parameters of the control component (SK1-SK3); e) interfaces with adjacent components (K1-K5, m1-m7) and with the surroundings, characterised in that f) the component (K1-K5, m1-m7) also comprises a dedicated internal simulator (ES1) integrated into the component, wherein the internal simulator (ES1) determines a future installation state (AZ3) from the data of adjacent simulators (ES2), from the loading plan (EP2) and a current installation state (AZ2) by simulation.
A process for the surface treatment of aluminum or aluminum alloy semi-finished products, comprising the steps of: a) preparing an aqueous solution of sodium hydroxide (NaOH) in a concentration between 100 g/l and 250 g/l and dissolved metallic aluminum in a concentration between 50 g/l and 70 g/l; b) adding to said solution an aluminum complexing agent, comprising gluconate and sorbitol, in a concentration of between 5 g/l and 25 g/l, the ratio between the concentration of sorbitol (in grams per liter of solution) and the concentration of gluconate (in grams per liter of solution) being between 0.7 and 0.75; c) placing the semi-finished product in contact with the solution, for the time necessary to carry out the desired surface treatment; and d) during step (c), maintaining the temperature of said solution in a range between 50°C and 100°C, and maintaining the aluminum concentration dissolved in said solution in a range between 50 g/l and 70 g/l. a) preparing an aqueous solution of sodium hydroxide (NaOH) in a concentration between 100 g/l and 250 g/l and dissolved metallic aluminum in a concentration between 50 g/l and 70 g/l; b) adding to said solution an aluminum complexing agent, comprising gluconate and sorbitol, in a concentration of between 5 g/l and 25 g/l, the ratio between the concentration of sorbitol (in grams per liter of solution) and the concentration of gluconate (in grams per liter of solution) being between 0.7 and 0.75; c) placing the semi-finished product in contact with the solution, for the time necessary to carry out the desired surface treatment; and d) during step (c), maintaining the temperature of said solution in a range between 50°C and 100°C, and maintaining the aluminum concentration dissolved in said solution in a range between 50 g/l and 70 g/l.
A method comprising: sending, to a host module, a pin signal indicating that an optics module is plugged into the host module, wherein the optics module is configured to operate at at least a first data rate and a second data rate ; receiving, from the host module, an indication of a host data rate ; storing a first electrically erasable programmable read-only memory map in a host-accessible memory buffer, wherein the first electrically erasable programmable read-only memory map specifies the first data rate; determining whether there is clock and data recovery loss of lock between the first data rate and the host data rate ; and if it is determined that there is clock and data recovery loss of lock between the first data rate and the host data rate, initializing the optics module at the second data rate. sending, to a host module, a pin signal indicating that an optics module is plugged into the host module, wherein the optics module is configured to operate at at least a first data rate and a second data rate ; receiving, from the host module, an indication of a host data rate ; storing a first electrically erasable programmable read-only memory map in a host-accessible memory buffer, wherein the first electrically erasable programmable read-only memory map specifies the first data rate; determining whether there is clock and data recovery loss of lock between the first data rate and the host data rate ; and if it is determined that there is clock and data recovery loss of lock between the first data rate and the host data rate, initializing the optics module at the second data rate.
A method of monitoring fire conditions within an aircraft structure comprising: providing a first fiber optic cable terminating at a node disposed to monitor a smoke condition at one or more predetermined areas of the aircraft structure; providing a second fiber optic cable arranged to monitor a temperature condition at one or more predetermined areas of the aircraft structure; connecting the first fiber optic cable and the second fiber optic cable to a control system via a port, the control system comprising a light source and a light sensitive device; transmitting light from the light source through the first fiber optic cable; transmitting light from the light source along the second fiber optic cable ; receiving scattered light from the first fiber optic cable and the second fiber optic cable at the control system via the light sensitive device; determining by the control system at least one of the presence and magnitude of the smoke condition by analyzing light scattered near the node outside the first fiber optic cable; and determining by the control system the temperature condition at the one or more predetermined areas by analyzing the scattered light that has been internally scattered at one or more fiber portions of the second fiber optic cable . providing a first fiber optic cable terminating at a node disposed to monitor a smoke condition at one or more predetermined areas of the aircraft structure; providing a second fiber optic cable arranged to monitor a temperature condition at one or more predetermined areas of the aircraft structure; connecting the first fiber optic cable and the second fiber optic cable to a control system via a port, the control system comprising a light source and a light sensitive device; transmitting light from the light source through the first fiber optic cable; transmitting light from the light source along the second fiber optic cable ; receiving scattered light from the first fiber optic cable and the second fiber optic cable at the control system via the light sensitive device; determining by the control system at least one of the presence and magnitude of the smoke condition by analyzing light scattered near the node outside the first fiber optic cable; and determining by the control system the temperature condition at the one or more predetermined areas by analyzing the scattered light that has been internally scattered at one or more fiber portions of the second fiber optic cable .
A method of controlling user access to one or more domains (D1, D2, D3, D4) on a terminal through the use of a removable storage device , wherein the removable storage device serves as a control point for a user and the one or more domains (D1, D2, D3, D4) on the terminal by virtue of possessing authorisation data for the user in respect of the one or more domains (D1, D2, D3, D4), the method including: providing the removable storage device with data to be verified (step 1); the removable storage device verifying the validity of the data received from the terminal by comparing the received data to the authorisation data in an authorisation database of the removable storage device in order to obtain a verification decision, wherein the verification decision is dependent upon said provided data; and upon the verification providing a positive verification decision, checking whether the removable storage device possesses the authorisation data for the user, and, if the removable storage device does possess the authorisation data, the removable storage device provides the terminal with a positive access indication, thereby providing the terminal with proof of possession of the authorisation data for the user in respect of the one or more domains (D1, D2, D3, D4) on the terminal , such that the removable storage device only provides the positive access indication of the user to the terminal when the terminal itself has been positively authenticated; and upon the terminal receiving the positive access indication, the terminal allowing the user to access the one or more domains (step 2). providing the removable storage device with data to be verified (step 1); the removable storage device verifying the validity of the data received from the terminal by comparing the received data to the authorisation data in an authorisation database of the removable storage device in order to obtain a verification decision, wherein the verification decision is dependent upon said provided data; and upon the verification providing a positive verification decision, checking whether the removable storage device possesses the authorisation data for the user, and, if the removable storage device does possess the authorisation data, the removable storage device provides the terminal with a positive access indication, thereby providing the terminal with proof of possession of the authorisation data for the user in respect of the one or more domains (D1, D2, D3, D4) on the terminal , such that the removable storage device only provides the positive access indication of the user to the terminal when the terminal itself has been positively authenticated; and upon the terminal receiving the positive access indication, the terminal allowing the user to access the one or more domains (step 2).
A single-lumen catheter for insertion into a human and/or animal hollow organ, comprising a catheter shaft with a lumen , which opens into a front opening at a distal end of the catheter shaft , wherein the catheter shaft has at least a first lateral opening that is at a distance from the distal end and opens into the lumen , wherein there is at least a first insertion device , arranged on an external side of the catheter shaft in a region of the first lateral opening , for a wire-like element that should be inserted into the first lateral opening from the outside, characterized in that there is a second lateral opening that opens into the lumen , wherein the second lateral opening is spaced apart from the first lateral opening in a proximal direction, such that a first wire-like element can be exchanged for a second wire-like element , such that both wire-like elements are simultaneously present in the catheter.
A method for multipath communication of a terminal via a gateway , the method comprises: storing a whitelist including applications corresponding to multipath communication applicable objects via the gateway , and generating, when a first application included in the whitelist is executed, at least one path connected to the gateway using at least one of multiplex communication interfaces, and sending, when a second application not included in the whitelist is executed, traffic of the second application via a path that does not include the gateway. storing a whitelist including applications corresponding to multipath communication applicable objects via the gateway , and generating, when a first application included in the whitelist is executed, at least one path connected to the gateway using at least one of multiplex communication interfaces, and sending, when a second application not included in the whitelist is executed, traffic of the second application via a path that does not include the gateway.
A multiple aperture device, MAD , for directing sound from a low-frequency transducer , the MAD comprising: a) a front face having a plurality of apertures ; b) a rim having a circumference which matches a circumference of a perimeter of the low-frequency transducer ; c) a bulb covering a center of a diaphragm of the low-frequency transducer ; and d) a plurality of walls (140-146) defining cavities between the diaphragm of the low-frequency transducer and the plurality of apertures ; e) wherein the plurality of walls (140-146) and the plurality of apertures define a spatial response in both horizontal and vertical planes for desired radiation patterns of sound produced by the low-frequency transducer , f) wherein the plurality of apertures are rectangular in shape and are substantially equal in size, g) wherein the low-frequency transducer is a thirty centimeter woofer, h) wherein the plurality of walls extend from the bulb to the rim and are spaced equally around the bulb, and i) wherein the plurality of apertures consists of six apertures and the plurality of walls (140-146) are spaced at about sixty degrees angles around the bulb. a) a front face having a plurality of apertures ; b) a rim having a circumference which matches a circumference of a perimeter of the low-frequency transducer ; c) a bulb covering a center of a diaphragm of the low-frequency transducer ; and d) a plurality of walls (140-146) defining cavities between the diaphragm of the low-frequency transducer and the plurality of apertures ; e) wherein the plurality of walls (140-146) and the plurality of apertures define a spatial response in both horizontal and vertical planes for desired radiation patterns of sound produced by the low-frequency transducer , f) wherein the plurality of apertures are rectangular in shape and are substantially equal in size, g) wherein the low-frequency transducer is a thirty centimeter woofer, h) wherein the plurality of walls extend from the bulb to the rim and are spaced equally around the bulb, and i) wherein the plurality of apertures consists of six apertures and the plurality of walls (140-146) are spaced at about sixty degrees angles around the bulb.
A motor drive device for an open winding type motor in which three-phase independent winding wires are provided in a stator of the motor such that a current flowing through each independent winding wire in the motor flows out of the motor without passing through another independent winding wire, the motor drive device comprising: a plurality of single-phase inverters provided for each of the winding wires to individually apply a voltage to a corresponding winding wire; and a controller configured to control each of the single-phase inverters provided for each of the winding wires , the controller being configured to adjust a 0-axis current, defined as an amount directly proportional to a total sum value of AC-currents, to a predetermined value by alternately and repeatedly generating a first period (ztime) in which a sum of voltages applied to the respective winding wires is set to a value other than zero to offset the 0-axis current and a second period in which the sum of the voltages applied to the respective winding wires is set to zero, and characterized in that an offset amount of the 0-axis current in the first period (ztime) is set such that an amplitude change of the 0-axis current from a start of the first period (ztime) to an end of the subsequent second period is proportionally distributed above and below the predetermined value. a plurality of single-phase inverters provided for each of the winding wires to individually apply a voltage to a corresponding winding wire; and a controller configured to control each of the single-phase inverters provided for each of the winding wires , the controller being configured to adjust a 0-axis current, defined as an amount directly proportional to a total sum value of AC-currents, to a predetermined value by alternately and repeatedly generating a first period (ztime) in which a sum of voltages applied to the respective winding wires is set to a value other than zero to offset the 0-axis current and a second period in which the sum of the voltages applied to the respective winding wires is set to zero, and characterized in that an offset amount of the 0-axis current in the first period (ztime) is set such that an amplitude change of the 0-axis current from a start of the first period (ztime) to an end of the subsequent second period is proportionally distributed above and below the predetermined value.
A flow path member comprising a first substrate having a first main surface , a second substrate having a second main surface , a bonding member bonding the first main surface and the second main surface , and a flow path positioned between the first substrate and the second substrate and extended along the first main surface and the second main surface , wherein the bonding member has a projection which is protruded from a portion between the first main surface and the second main surface toward an inner part of the flow path , characterized in that the flow path has a first portion having the projection provided in an inner part and a second portion linked to the first portion adjacently to an opposite side to a side where the projection of the first portion is provided, and a height (H1) of the first portion is greater than a height (H2) of the second portion .
A satiety-inducing device for continuously dispensing nutrients to a patient (P), the device comprising: an enteral feeding tube having a distal end and a proximal end , the distal end positionable within a body lumen (S) of the patient (P); a retainer secured to the feeding tube at the proximal end of the feeding tube , the retainer being an external retainer for deployment outside the patient's body; and an expandable bladder secured to the feeding tube near the distal end of the feeding tube such that the expandable bladder is positionable within the body lumen (S) of the patient (P), characterized in that the expandable bladder expands upon receipt of nutrients to occupy a volume of the body lumen (S) and contracts as nutrients are continuously dispensed to the patient (P). an enteral feeding tube having a distal end and a proximal end , the distal end positionable within a body lumen (S) of the patient (P); a retainer secured to the feeding tube at the proximal end of the feeding tube , the retainer being an external retainer for deployment outside the patient's body; and an expandable bladder secured to the feeding tube near the distal end of the feeding tube such that the expandable bladder is positionable within the body lumen (S) of the patient (P), characterized in that the expandable bladder expands upon receipt of nutrients to occupy a volume of the body lumen (S) and contracts as nutrients are continuously dispensed to the patient (P).