mhurhangee/patent-ind-claim-en huggingface dataset:
A control system for an active powertrain mount for a vehicle, comprising: an active powertrain mount disposed between a powertrain component and a chassis of the vehicle for adjustably damping vibrations in an active direction therebetween; and a controller generating a control signal to adjust the damping characteristics of the active powertrain mount based on an output velocity of the powertrain component at said active powertrain mount , characterized in that said control signal is proportional to a mount velocity; and wherein said controller determines said mount velocity as the difference between an input velocity of the chassis at the active powertrain mount and the output velocity of the powertrain component at the active powertrain mount , and wherein said chassis has a CG heave, a roll velocity, and a pitch velocity; and wherein said controller translates the CG heave, the roll velocity, and the pitch velocity of the chassis to a predetermined location of the active powertrain mount on the chassis to determine said input velocity of the chassis at the active powertrain mount . an active powertrain mount disposed between a powertrain component and a chassis of the vehicle for adjustably damping vibrations in an active direction therebetween; and a controller generating a control signal to adjust the damping characteristics of the active powertrain mount based on an output velocity of the powertrain component at said active powertrain mount , characterized in that said control signal is proportional to a mount velocity; and wherein said controller determines said mount velocity as the difference between an input velocity of the chassis at the active powertrain mount and the output velocity of the powertrain component at the active powertrain mount , and wherein said chassis has a CG heave, a roll velocity, and a pitch velocity; and wherein said controller translates the CG heave, the roll velocity, and the pitch velocity of the chassis to a predetermined location of the active powertrain mount on the chassis to determine said input velocity of the chassis at the active powertrain mount .
A self-repairing polyurethane resin material used for producing polyurethane resin having self-repairing properties, wherein the self-repairing polyurethane resin material has an isocyanate group at its molecular terminal, the self-repairing polyurethane resin material is produced by reaction of pentamethylenediisocyanate and an active hydrogen group-containing compound, and the active hydrogen group-containing compound contains a polyol compound having a number average molecular weight of 100 to 2000 and an average functionality of 2 to 3, and the polyol compound includes a carbonate group and/or an ester group, wherein the number average molecular weight and the average functionality are determined according to the methods identified in the specification. wherein the self-repairing polyurethane resin material has an isocyanate group at its molecular terminal, the self-repairing polyurethane resin material is produced by reaction of pentamethylenediisocyanate and an active hydrogen group-containing compound, and the active hydrogen group-containing compound contains a polyol compound having a number average molecular weight of 100 to 2000 and an average functionality of 2 to 3, and the polyol compound includes a carbonate group and/or an ester group, wherein the number average molecular weight and the average functionality are determined according to the methods identified in the specification.
A method for display box management on a terminal comprising a display unit with a touch screen, the method comprising: displaying a first screen comprising at least one icon; in response to receiving a user input comprising a touch of an icon of the at least one icon in the first screen for a predetermined time, the icon corresponding to an application, the method being characterised in displaying a second screen comprising the icon disposed at a region on which the touch is maintained, wherein the second screen is different from the first screen and the icon is moved according to a move of the touch while the touch is maintained; in response to detecting that the user input is released, displaying a display box corresponding to the icon and the application at a region on which the icon is disposed, and changing an attribute of the display box to be dynamic to dynamically display data associated with the application updated every predetermined time unit; and in response to the data associated with the application being changed, displaying the changed data in the display box . displaying a first screen comprising at least one icon; in response to receiving a user input comprising a touch of an icon of the at least one icon in the first screen for a predetermined time, the icon corresponding to an application, the method being characterised in displaying a second screen comprising the icon disposed at a region on which the touch is maintained, wherein the second screen is different from the first screen and the icon is moved according to a move of the touch while the touch is maintained; in response to detecting that the user input is released, displaying a display box corresponding to the icon and the application at a region on which the icon is disposed, and changing an attribute of the display box to be dynamic to dynamically display data associated with the application updated every predetermined time unit; and in response to the data associated with the application being changed, displaying the changed data in the display box .
A method for determining a usage limit for an energy storage device arranged to provide energy to a vehicle , said method comprising the steps of: determining (S301) a value of a travel parameter of the energy storage device, said value of said travel parameter being related to a total power usage of the energy storage device,, estimating (S305) a first variation of an operating parameter of said energy storage device based on said value of said travel parameter from a first set of historical data relating a variation of the operating parameter to said travel parameter, wherein said first set of historical data includes measurement data from previous measurements on a plurality of energy storage devices, estimating an actual variation of said operating parameter for said energy storage device based on data collected during operation of the vehicle related to actual usage of said energy storage device in said vehicle, said data being provided by a control unit in the vehicle, calculating (S309) a first operating parameter variation difference (dQ1) between said actual variation and said first variation of said operating parameter, from said first operating parameter variation difference, determining (S315) an usage limit adjustment from a set of predefined usage limit adjustments (dULA), determining (S317) said usage limit by adjusting a previous usage limit based on said usage limit adjustment. determining (S301) a value of a travel parameter of the energy storage device, said value of said travel parameter being related to a total power usage of the energy storage device,, estimating (S305) a first variation of an operating parameter of said energy storage device based on said value of said travel parameter from a first set of historical data relating a variation of the operating parameter to said travel parameter, wherein said first set of historical data includes measurement data from previous measurements on a plurality of energy storage devices, estimating an actual variation of said operating parameter for said energy storage device based on data collected during operation of the vehicle related to actual usage of said energy storage device in said vehicle, said data being provided by a control unit in the vehicle, calculating (S309) a first operating parameter variation difference (dQ1) between said actual variation and said first variation of said operating parameter, from said first operating parameter variation difference, determining (S315) an usage limit adjustment from a set of predefined usage limit adjustments (dULA), determining (S317) said usage limit by adjusting a previous usage limit based on said usage limit adjustment.
Process for manufacturing a semiconductor-on-insulator structure , comprising the following steps: - provision of an FD-SOI substrate comprising successively, from its base to its top: • a single-crystal semiconductor substrate with an electrical resistivity of between 500 Ω.cm and 30 kΩ.cm, an interstitial oxygen (Oi) content of between 20 and 40 old ppma, and doping of a first P or N type, • an electrically insulating layer with a thickness of between 20 nm and 400 nm, and • a single-crystal semiconductor layer with P-type doping, - heat treatment of the FD-SOI substrate at a temperature greater than or equal to 1175°C for a time greater than or equal to 1h, in order to form a P-N junction in the single-crystal semiconductor substrate at a determined depth with respect to the electrically insulating layer , • by diffusion of P-type dopants from the single-crystal semiconductor layer through the electrically insulating layer in said substrate , • and, if the substrate has P-type doping, by the formation in said substrate of thermal donors by precipitation of interstitial oxygen, so as to form, in the substrate, a first region with N-type doping extending between the base of the substrate and the P-N junction and a second P-doped region located between the first region and the electrically insulating layer . - provision of an FD-SOI substrate comprising successively, from its base to its top: • a single-crystal semiconductor substrate with an electrical resistivity of between 500 Ω.cm and 30 kΩ.cm, an interstitial oxygen (Oi) content of between 20 and 40 old ppma, and doping of a first P or N type, • an electrically insulating layer with a thickness of between 20 nm and 400 nm, and • a single-crystal semiconductor layer with P-type doping, • a single-crystal semiconductor substrate with an electrical resistivity of between 500 Ω.cm and 30 kΩ.cm, an interstitial oxygen (Oi) content of between 20 and 40 old ppma, and doping of a first P or N type, • an electrically insulating layer with a thickness of between 20 nm and 400 nm, and • a single-crystal semiconductor layer with P-type doping, - heat treatment of the FD-SOI substrate at a temperature greater than or equal to 1175°C for a time greater than or equal to 1h, in order to form a P-N junction in the single-crystal semiconductor substrate at a determined depth with respect to the electrically insulating layer , • by diffusion of P-type dopants from the single-crystal semiconductor layer through the electrically insulating layer in said substrate , • and, if the substrate has P-type doping, by the formation in said substrate of thermal donors by precipitation of interstitial oxygen, • by diffusion of P-type dopants from the single-crystal semiconductor layer through the electrically insulating layer in said substrate , • and, if the substrate has P-type doping, by the formation in said substrate of thermal donors by precipitation of interstitial oxygen,
Method for managing a signal transmission emitted by a wireless transponder (TG) to a reader (RD), said transmission using an active load modulation and being based on transmitted bursts (TXBST) separated by pause periods (PP), each transmitted burst (TXBST) including transmitted pulses (TXP), said method comprising - performing an active damping operation (ST64) at the end of said transmitted bursts in the beginning of the pause periods, said active damping operation comprising transmitting a number of additional pulses (DP1, DP2, DP3) having a phase opposite to the phase of said transmitted pulses (TXP), and - controlling the transmitted pulses power (PWS), the additional pulses power (Dampi), the number of additional pulses (N) based on a distance (D) between the reader and the wireless transponder and on reference values of the transmitted pulses power, the additional pulses power, and the number respectively associated with reference distances (DREF1-DREFP). - performing an active damping operation (ST64) at the end of said transmitted bursts in the beginning of the pause periods, said active damping operation comprising transmitting a number of additional pulses (DP1, DP2, DP3) having a phase opposite to the phase of said transmitted pulses (TXP), and - controlling the transmitted pulses power (PWS), the additional pulses power (Dampi), the number of additional pulses (N) based on a distance (D) between the reader and the wireless transponder and on reference values of the transmitted pulses power, the additional pulses power, and the number respectively associated with reference distances (DREF1-DREFP).
An interconnect comprising: a substrate ; a liquid conductive pathway supported by the substrate; and a conductively anisotropic, magnetic particle-embedded encapsulant that interfaces with the liquid conductive pathway for connecting to another circuit element. a substrate ; a liquid conductive pathway supported by the substrate; and a conductively anisotropic, magnetic particle-embedded encapsulant that interfaces with the liquid conductive pathway for connecting to another circuit element.
An information processing device , comprising: a wireless communication unit that wirelessly communicates with a plurality of source devices as a sink device ; a control unit that controls a connection with the source devices and transmission of content or data from the source devices ; a user interface unit that selects one of an accessibility operation and a normal operation, and a stream receiving unit, wherein the information processing device, operated as a sink device , is operable in one of a normal mode, and one or more types of accessibility modes of supporting browsing for an operator of the sink device with a disability or functional degeneration of his body, wherein supporting browsing corresponds to web accessibility by the operator; wherein, when the sink device is operating in one of the one or more types of accessibility modes, the stream receiving unit of the sink device is configured to receive content data and metadata from the source devices , wherein the metadata is data for supporting the disability or functional degeneration of the operator, wherein each of the plurality of source devices is operable in one of a normal mode and one or more types of said accessibility modes of supporting browsing, and the control unit requests the source devices so that the accessibility modes of the plurality of source devices coincide. a wireless communication unit that wirelessly communicates with a plurality of source devices as a sink device ; a control unit that controls a connection with the source devices and transmission of content or data from the source devices ; a user interface unit that selects one of an accessibility operation and a normal operation, and a stream receiving unit, wherein the information processing device, operated as a sink device , is operable in one of a normal mode, and one or more types of accessibility modes of supporting browsing for an operator of the sink device with a disability or functional degeneration of his body, wherein supporting browsing corresponds to web accessibility by the operator; wherein, when the sink device is operating in one of the one or more types of accessibility modes, the stream receiving unit of the sink device is configured to receive content data and metadata from the source devices , wherein the metadata is data for supporting the disability or functional degeneration of the operator, wherein each of the plurality of source devices is operable in one of a normal mode and one or more types of said accessibility modes of supporting browsing, and the control unit requests the source devices so that the accessibility modes of the plurality of source devices coincide.
A straddle type vehicle , in particular a motorcycle comprising: - a body with a front portion ; - a head pipe ; said front portion being arranged frontward with respect to said head pipe ; - at least one fork which is rotatably supported by said head pipe ; - a steering mechanism supported at a top portion of said front fork ; and at least one front wheel supported at a bottom portion of said front fork ; - a frame ; and - a headlight comprising at least one LED light source ; said headlight further comprising a plurality of cooling fins operatively connected to said LED light source and adapted to dissipate the heat generated, in use, by the operation of said LED light source ; said front portion comprising: - a led lighting unit ; and - a support structure ; said fins being interposed between said led lighting source and said support structure ; and - an additional cover , which covers at least one portion of said supporting structure or said led lighting unit ; said led lighting unit comprising a conveying path (P) defined by a vane between said frame and said headlight ; said conveying path (P) being open towards the outside of said led lighting unit and being thermally coupled with said fins , so as to convey a cooling flow from the outside of said unit towards said fins ; said conveying path (P) comprising an outlet being open towards said support structure ; characterized by comprising an air flow passage area formed at said front portion by said additional cover which covers at least one portion of said supporting structure or said led lighting unit ; said air flow passage area comprising, in turn,: - an inlet for the running wind mounted at the bottom part of said front portion ; and - an outlet for said running wind mounted at the top part of said front portion . - a body with a front portion ; - a head pipe ; said front portion being arranged frontward with respect to said head pipe ; - at least one fork which is rotatably supported by said head pipe ; - a steering mechanism supported at a top portion of said front fork ; and at least one front wheel supported at a bottom portion of said front fork ; - a frame ; and - a headlight comprising at least one LED light source ; - a led lighting unit ; and - a support structure ; - an additional cover , which covers at least one portion of said supporting structure or said led lighting unit ; - an inlet for the running wind mounted at the bottom part of said front portion ; and - an outlet for said running wind mounted at the top part of said front portion .
A fluid port (1; 1') comprising: - a first fluid connection (3; 3'); - a second fluid connection (5; 5') being in fluid communication with the first fluid connection (3; 3'); - an intermediate fluid path (7: 7') connecting the first fluid connection (3; 3') with the second fluid connection (5; 5'); wherein said intermediate fluid path (7; 7') at least a portion of which comprises a substantially right-angled bend (9; 9'); - a protection cap (11; 11') protecting at least the bend (9; 9') of the intermediate fluid part (7; 7') from contact with other objects; and - a connection surface (13; 13') configured for sealing to a film of an object to be supplied by said port, said connection surface will, when sealed to the film of the object, together with the film provide a fluid tight seal surrounding the first fluid connection (3; 3'). - a first fluid connection (3; 3'); - a second fluid connection (5; 5') being in fluid communication with the first fluid connection (3; 3'); - an intermediate fluid path (7: 7') connecting the first fluid connection (3; 3') with the second fluid connection (5; 5'); wherein said intermediate fluid path (7; 7') at least a portion of which comprises a substantially right-angled bend (9; 9'); - a protection cap (11; 11') protecting at least the bend (9; 9') of the intermediate fluid part (7; 7') from contact with other objects; and - a connection surface (13; 13') configured for sealing to a film of an object to be supplied by said port, said connection surface will, when sealed to the film of the object, together with the film provide a fluid tight seal surrounding the first fluid connection (3; 3').
A driving and dosing device for an injection device for administering a liquid product, wherein a product dose to be administered is set with the driving and dosing device, comprising: a) a housing , b) a dose indicating element , over the periphery of which a dose scale is arranged, c) a pointing device and a dosing element , which can be gripped by the user of the driving and dosing device, wherein by rotating the dosing element relative to the pointing device in order to set the dose to be administered, the dose indicating element is rotated to move relative to the pointing device and about an axis of rotation (L), and a value of the dose scale corresponding to the set dose can be read off by means of the pointing device , d) a discharge spring , which stores the energy necessary for discharging of the product, wherein the discharge spring is cocked by rotating the dosing element , e) an actuating element that is actuated by the user of the driving and dosing device in order to discharge the set product dose, characterized in that f) the driving and dosing device comprises a clutch that couples the dosing element to the discharge spring in such a manner that the discharge spring is cocked by rotating the dosing element when the actuating element is not actuated, wherein the clutch decouples the dosing element from the discharge spring when the actuating element is actuated. a) a housing , b) a dose indicating element , over the periphery of which a dose scale is arranged, c) a pointing device and a dosing element , which can be gripped by the user of the driving and dosing device, wherein by rotating the dosing element relative to the pointing device in order to set the dose to be administered, the dose indicating element is rotated to move relative to the pointing device and about an axis of rotation (L), and a value of the dose scale corresponding to the set dose can be read off by means of the pointing device , d) a discharge spring , which stores the energy necessary for discharging of the product, wherein the discharge spring is cocked by rotating the dosing element , e) an actuating element that is actuated by the user of the driving and dosing device in order to discharge the set product dose, characterized in that f) the driving and dosing device comprises a clutch that couples the dosing element to the discharge spring in such a manner that the discharge spring is cocked by rotating the dosing element when the actuating element is not actuated, wherein the clutch decouples the dosing element from the discharge spring when the actuating element is actuated.
Seal for a pipe penetration in an underlay of a weatherproofing roof covering, said seal comprising a collar and a flange portion laterally extending from the collar and surrounding it, said collar being connected to the flange portion by means of a flexible sleeve extending between the collar and the flange portion for setting the upper end of said collar flexibly at a desired distance from said flange portion , characterized in that the seal is provided with a stiffener in the area of the upper end of the collar , wherein the stiffener is formed of a material harder than that of the collar , and in that the seal is provided with flexible bands extending from the upper end of said collar , for attaching the upper end of said collar to a penetration flashing for a roof covering.