mhurhangee/patent-ind-claim-en huggingface dataset:
A medium handling device , comprising: a first portion of the medium handling device , wherein the first portion includes a first transport that is configured to transport a medium along a first transport path, a recognition circuit that is configured to recognize the medium that has been transported by the first transport , and a connection port to the first transport path; a second portion of the medium handling device , wherein the second portion includes an internal storage (31-35) that is configured to store the medium to be transported to or from the first portion ; and a third portion of the medium handling device , wherein the third portion includes a mounter on which an external cassette that is configured to store the medium is mountable and a second transport that transports the medium along a second transport path between the mountable external cassette and the first transport , wherein at least a part of the third portion is supported by the second portion on an outside of the second portion , and the second transport is configured to be moved to connect to the first transport path via the connection port when the third portion is used, characterized in that the third portion includes a coupling mechanism that is configured to couple the second transport to the mounter , and to transmit a movement of the second transport to the mounter , and the mounter is configured to deform in conjunction with the movement of the second transport through the coupling mechanism . a first portion of the medium handling device , wherein the first portion includes a first transport that is configured to transport a medium along a first transport path, a recognition circuit that is configured to recognize the medium that has been transported by the first transport , and a connection port to the first transport path; a second portion of the medium handling device , wherein the second portion includes an internal storage (31-35) that is configured to store the medium to be transported to or from the first portion ; and a third portion of the medium handling device , wherein the third portion includes a mounter on which an external cassette that is configured to store the medium is mountable and a second transport that transports the medium along a second transport path between the mountable external cassette and the first transport , wherein at least a part of the third portion is supported by the second portion on an outside of the second portion , and the second transport is configured to be moved to connect to the first transport path via the connection port when the third portion is used, characterized in that the third portion includes a coupling mechanism that is configured to couple the second transport to the mounter , and to transmit a movement of the second transport to the mounter , and the mounter is configured to deform in conjunction with the movement of the second transport through the coupling mechanism .
A damping arrangement for roller blinds, comprising a profile intended to be inserted into a vertical side guide , the profile having a substantially T-shaped cross section such that it defines a central portion with a slot intended to hold a fabric sheet and two lateral sections, and damping means distributed along the profile configured to make contact with the vertical side guide , characterised in that the damping means comprise a plurality of longitudinally distributed damping members , each of the damping members being formed by a wire body made of a single piece, which has two arched tabs spaced apart and joined by an intermediate portion in contact with a flat surface of the profile , wherein the arched tabs protrude through corresponding slotted portions present in each of the lateral sections of the profile , the tabs of which protrude from the two lateral sections of the profile , in which each of the tabs has a helical spring, and extending from each of the springs is a stepped portion that ends at the intermediate portion , and positioning means for securing the damping member to the profile .
A method for wireless communication, the method comprising: selecting a sidelink control information, SCI, format for indicating a minimum communication range parameter, wherein the SCI format is a common format defined for requesting both location-based feedback and signal strength-based feedback; generating , based on the SCI format, SCI indicating a value for the minimum communication range parameter, the minimum communication range parameter corresponding to one or more of: a location-based value, and a signal strength-based value; and transmitting , to one or more devices, the SCI indicating the value for the minimum communication range parameter. selecting a sidelink control information, SCI, format for indicating a minimum communication range parameter, wherein the SCI format is a common format defined for requesting both location-based feedback and signal strength-based feedback; generating , based on the SCI format, SCI indicating a value for the minimum communication range parameter, the minimum communication range parameter corresponding to one or more of: a location-based value, and a signal strength-based value; and transmitting , to one or more devices, the SCI indicating the value for the minimum communication range parameter.
A method, comprising: generating a sine wave that is synchronized with an alternating current, AC, power input from an AC power line and of an equivalent amplitude to the AC power input; comparing the AC power input to the generated sine wave to detect when an instantaneous voltage level of the AC power input is different from a corresponding voltage level on the generated sine wave; upon determining that the instantaneous voltage level of the AC power input is different from the corresponding value on the generated sine wave, applying a momentary load to the AC power line; determining that a difference between a voltage of the AC power line before application of the momentary load and a voltage of the AC power line after application of the momentary load is greater than a specified amount; and at least in part in response to determining that the difference between the voltage of the AC power line before application of the momentary load and the voltage of the AC power line after application of the momentary load is greater than a specified amount, determining that the AC power line has lost power. generating a sine wave that is synchronized with an alternating current, AC, power input from an AC power line and of an equivalent amplitude to the AC power input; comparing the AC power input to the generated sine wave to detect when an instantaneous voltage level of the AC power input is different from a corresponding voltage level on the generated sine wave; upon determining that the instantaneous voltage level of the AC power input is different from the corresponding value on the generated sine wave, applying a momentary load to the AC power line; determining that a difference between a voltage of the AC power line before application of the momentary load and a voltage of the AC power line after application of the momentary load is greater than a specified amount; and at least in part in response to determining that the difference between the voltage of the AC power line before application of the momentary load and the voltage of the AC power line after application of the momentary load is greater than a specified amount, determining that the AC power line has lost power.
A device , comprising: a printed circuit board assembly including: a printed circuit board ; and one or more electronic components disposed on the printed circuit board ; and a nanofilm disposed on the printed circuit board assembly , the nanofilm including: an inner coating in contact with the printed circuit board assembly , the inner coating including metal oxide particles; and an outer coating in contact with the inner coating , the outer coating including silicon dioxide particles, characterized in that the metal oxide particles in the inner coating are nanoparticles having a particle diameter in a range of 5 nm to 100 nm, the silicon dioxide particles in the outer coating are nanoparticles having a particle diameter in a range of 0.1 nm to 10 nm, and the nanoparticles of the inner coating and the outer coating are covalently bonded. a printed circuit board assembly including: a printed circuit board ; and one or more electronic components disposed on the printed circuit board ; and a printed circuit board ; and one or more electronic components disposed on the printed circuit board ; and a nanofilm disposed on the printed circuit board assembly , the nanofilm including: an inner coating in contact with the printed circuit board assembly , the inner coating including metal oxide particles; and an outer coating in contact with the inner coating , the outer coating including silicon dioxide particles, an inner coating in contact with the printed circuit board assembly , the inner coating including metal oxide particles; and an outer coating in contact with the inner coating , the outer coating including silicon dioxide particles, characterized in that the metal oxide particles in the inner coating are nanoparticles having a particle diameter in a range of 5 nm to 100 nm, the silicon dioxide particles in the outer coating are nanoparticles having a particle diameter in a range of 0.1 nm to 10 nm, and the nanoparticles of the inner coating and the outer coating are covalently bonded.
A moving robot comprising: a main body ; a driving unit configured to move the main body ; a sensing unit configured to sense information regarding an environment around the main body during traveling so as to generate field data; a communication unit configured to communicate with a server over a specific network ; and a controller configured to control autonomous traveling (S110) based on a recognition result obtained by inputting the field data to a specific recognition algorithm, control some of the field data so as to be transmitted (S120) to the server , and to update the recognition algorithm using update information received from the server , characterized in that the controller is further configured to: compare a re-recognition result, obtained by inputting the field data to a specific re-recognition algorithm, with the recognition result; and selectively transmit the field data to the server based on whether the recognition result and the re-recognition result are different. a main body ; a driving unit configured to move the main body ; a sensing unit configured to sense information regarding an environment around the main body during traveling so as to generate field data; a communication unit configured to communicate with a server over a specific network ; and a controller configured to control autonomous traveling (S110) based on a recognition result obtained by inputting the field data to a specific recognition algorithm, control some of the field data so as to be transmitted (S120) to the server , and to update the recognition algorithm using update information received from the server , compare a re-recognition result, obtained by inputting the field data to a specific re-recognition algorithm, with the recognition result; and selectively transmit the field data to the server based on whether the recognition result and the re-recognition result are different.
Energy-absorbing bracket for anchoring an item to an inner surface of a cargo space of a vehicle, wherein the bracket comprises a first side which faces said inner surface when the bracket is anchored thereto, and a second side opposite the first side and thus faces the cargo space in the mounted position, wherein the inner surface of the vehicle having an extension in a first direction (x), which substantially is a travelling direction of a vehicle, the bracket comprising: a first anchoring portion arranged for attachment to said inner surface, wherein the first anchoring portion has a first extension plane (A) in the first direction (x), a second anchoring portion arranged for attachment to said item, an expansion portion , arranged between and connecting the first and second anchoring portions , wherein the expansion portion has an extension in the first direction (x), wherein the expansion portion is arranged to expand at least in the first direction (x) by being accordion-shaped in the first direction (x), wherein the accordion-shape of the expansion portion is substantially symmetrically arranged along a symmetry axis (y), wherein ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n) of the accordion-shaped expansion portion having a peak height (h) relative the symmetry axis (y), wherein the ridges (5a, 5b, ...5n) facing the first side of the bracket and the valleys (6a, 6b, ...6n) facing the second side of the bracket , characterized by that the peak height (h) of the ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n) relative the central axis (y) varies between adjacent ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n), such as a "wave-height" changes in direction from the second anchoring portion towards the first anchoring portion . a first anchoring portion arranged for attachment to said inner surface, wherein the first anchoring portion has a first extension plane (A) in the first direction (x), a second anchoring portion arranged for attachment to said item, an expansion portion , arranged between and connecting the first and second anchoring portions , wherein the expansion portion has an extension in the first direction (x), wherein the expansion portion is arranged to expand at least in the first direction (x) by being accordion-shaped in the first direction (x), wherein the accordion-shape of the expansion portion is substantially symmetrically arranged along a symmetry axis (y), wherein ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n) of the accordion-shaped expansion portion having a peak height (h) relative the symmetry axis (y), wherein the ridges (5a, 5b, ...5n) facing the first side of the bracket and the valleys (6a, 6b, ...6n) facing the second side of the bracket , characterized by that the peak height (h) of the ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n) relative the central axis (y) varies between adjacent ridges (5a, 5b, ...5n) and valleys (6a, 6b, ...6n), such as a "wave-height" changes in direction from the second anchoring portion towards the first anchoring portion .
Electronic device for switching currents, in particular in a vehicle, comprising: a power semiconductor , which is drivable for switching between at least two states; a metal-ceramic substrate having thermomechanical properties compatible with the power semiconductor , wherein the coefficients of thermal expansion of the metal-ceramic substrate and of the power semiconductor correspond to one another, on which metal-ceramic substrate the power semiconductor is arranged on one side; and a busbar , arranged on the other side of the metal-ceramic substrate , for conducting a current, wherein the metal-ceramic substrate and the busbar are coupled to one another by way of a heat-conducting layer , such that a heat-conducting connection is providable, and heat is dissipatable from the power semiconductor to the busbar . a power semiconductor , which is drivable for switching between at least two states; a metal-ceramic substrate having thermomechanical properties compatible with the power semiconductor , wherein the coefficients of thermal expansion of the metal-ceramic substrate and of the power semiconductor correspond to one another, on which metal-ceramic substrate the power semiconductor is arranged on one side; and a busbar , arranged on the other side of the metal-ceramic substrate , for conducting a current, wherein the metal-ceramic substrate and the busbar are coupled to one another by way of a heat-conducting layer , such that a heat-conducting connection is providable, and heat is dissipatable from the power semiconductor to the busbar .
Control device for a motor vehicle , having - a first electrical connection for receiving a first supply voltage (U1) of a first voltage source of a first on-board electrical system of the motor vehicle and - a second electrical connection for receiving a second supply voltage (U2) of a second voltage source of a second on-board electrical system of the motor vehicle , wherein the second supply voltage (U2) is smaller than the first supply voltage (U1), wherein an electrical earth connection for connecting a common earth potential of the first and the second on-board systems is provided, wherein the earth connection is provided to close a circuit both of the first on-board system and of the second on-board system , and a switching device downstream of the first connection is configured to block a current flow through the first connection depending on a voltage signal which is a function of a potential difference between the second connection and the earth connection , wherein the switching device blocks the current flow, in order to prevent an electrical connection via an earth lead element between the first electrical connection and the second electrical connection and a resulting return feed of the first supply voltage (U1) to the second electrical on-board electrical system , if the voltage signal indicates an interruption of an electrical connection between the earth connection and the earth potential . - a first electrical connection for receiving a first supply voltage (U1) of a first voltage source of a first on-board electrical system of the motor vehicle and - a second electrical connection for receiving a second supply voltage (U2) of a second voltage source of a second on-board electrical system of the motor vehicle , wherein the second supply voltage (U2) is smaller than the first supply voltage (U1),
A chromium- and fluorine-free chemical conversion treatment solution for metal surfaces comprising: at least one compound (A) selected from the group consisting of water-soluble titanium compounds and water-soluble zirconium compounds, and at least one organic compound (B), as a stabilizer, with two to three functional groups in one molecule, at least one cationic water-soluble resin (E) selected from the group consisting of water-soluble oligomers containing amino groups and water-soluble polymers containing amino groups, wherein said compound (A) content is 0.1 to 10 mmol/L, said organic compound (B) content is 2.5 to 10 times as high as a metal content of said compound (A) by mole, said compound (E) content is 0.001 to 1 mmol/L, and the pH of said chemical conversion treatment solution falls within the range of 2.0 to 6.5. at least one compound (A) selected from the group consisting of water-soluble titanium compounds and water-soluble zirconium compounds, and at least one organic compound (B), as a stabilizer, with two to three functional groups in one molecule, at least one cationic water-soluble resin (E) selected from the group consisting of water-soluble oligomers containing amino groups and water-soluble polymers containing amino groups, wherein said compound (A) content is 0.1 to 10 mmol/L, said organic compound (B) content is 2.5 to 10 times as high as a metal content of said compound (A) by mole, said compound (E) content is 0.001 to 1 mmol/L, and the pH of said chemical conversion treatment solution falls within the range of 2.0 to 6.5.
An embossed multi-ply tissue product comprising a first ply having a first surface and a plurality of discrete, spaced apart, dot embossments disposed thereon and a plurality of dome-like structures disposed between the spaced apart dot embossments and a second ply having a first surface and a plurality of discrete embossments disposed thereon, wherein the dot embossments have a height (H 100 ) greater than 500 μm, an average width at 25% height (W 25 ) less than 600 μm, and a ratio of average width at 100% height (W 100 ) to W 25 of greater than 3.00.
A method for controlling a suspension system of a motor vehicle comprising a vehicle body and a plurality of wheel pairs (2a/2b, 2c/2d), wherein the suspension system comprises spring members arranged for resilient connection between the wheels of the vehicle and said vehicle body , wherein the method comprises the steps of: - monitoring (S1) at least one first parameter indicating braking of the motor vehicle , and, when said parameter indicates braking of the motor vehicle, - preventing (S4) compression of the spring members of at least one wheel pair (2a/2b, 2c/2d) of the motor vehicle for counteracting a rotation of the vehicle body in connection to braking, characterized in that the step of preventing compression of the spring members is performed such that wheel suspension compression is prevented if and only if the wheel forces from the ground acting on the wheel in the wheel pair (2a/2b, 2c/2d) do not exceed a certain threshold value. - monitoring (S1) at least one first parameter indicating braking of the motor vehicle , and, when said parameter indicates braking of the motor vehicle, - preventing (S4) compression of the spring members of at least one wheel pair (2a/2b, 2c/2d) of the motor vehicle for counteracting a rotation of the vehicle body in connection to braking,
A graft for improving vascular compliance, the graft comprising: a tubular body having a first end and a second end , the tubular body having an outer sidewall and an inner sidewall ; a lumen extending between the first end and the second end; a first compressible chamber adjacent the first end of the tubular body and disposed between the inner side wall and the outer side wall; and a second compressible chamber adjacent the second end of the tubular body and disposed between the inner side wall and the outer side wall; wherein the first chamber adjacent the first end of the tubular body is less compressible than the second chamber adjacent the second end of the tubular body such that the first end of the tubular body substantially matches a first compliance and the second end of the tubular body substantially matches a second compliance, the second compliance being greater than the first compliance. a tubular body having a first end and a second end , the tubular body having an outer sidewall and an inner sidewall ; a lumen extending between the first end and the second end; a first compressible chamber adjacent the first end of the tubular body and disposed between the inner side wall and the outer side wall; and a second compressible chamber adjacent the second end of the tubular body and disposed between the inner side wall and the outer side wall; wherein the first chamber adjacent the first end of the tubular body is less compressible than the second chamber adjacent the second end of the tubular body such that the first end of the tubular body substantially matches a first compliance and the second end of the tubular body substantially matches a second compliance, the second compliance being greater than the first compliance.