mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile device comprising: an antenna ; and a controller configured to control the mobile device to transmit a wireless transmission via the antenna comprising a Clear To Send to Self, CTS-to-Self, frame that includes a duration field, the duration field including a value corresponding to a predefined listening time period, and wherein the controller is configured to control the mobile device to listen for one or more received echoes of the wireless transmission for the predefined listening time period from transmitting the wireless transmission; wherein said mobile device is configured to receive one or more echoes from one or more directions and wherein said controller is configured to determine a direction of said one or more directions based on an orientation of said mobile device, said one or more directions including at least one direction selected from the group consisting of a forward direction, a backward direction, a right direction, a left direction, an up direction, and a ground direction, and determine whether said mobile device is located in an indoor location or an outdoor location based on the received echoes, wherein said controller is configured to determine that said mobile device is located in an indoor location if the received echoes include echoes received from the ground direction, the up direction and at least three other directions of the directions. an antenna ; and a controller configured to control the mobile device to transmit a wireless transmission via the antenna comprising a Clear To Send to Self, CTS-to-Self, frame that includes a duration field, the duration field including a value corresponding to a predefined listening time period, and wherein the controller is configured to control the mobile device to listen for one or more received echoes of the wireless transmission for the predefined listening time period from transmitting the wireless transmission; wherein said mobile device is configured to receive one or more echoes from one or more directions and wherein said controller is configured to determine a direction of said one or more directions based on an orientation of said mobile device, said one or more directions including at least one direction selected from the group consisting of a forward direction, a backward direction, a right direction, a left direction, an up direction, and a ground direction, and determine whether said mobile device is located in an indoor location or an outdoor location based on the received echoes, wherein said controller is configured to determine that said mobile device is located in an indoor location if the received echoes include echoes received from the ground direction, the up direction and at least three other directions of the directions.
A computer-implemented method for actuating a control subsystem of an autonomous driving vehicle (ADV) control system, the method comprising: receiving a first control input to a feedback controller of an actuation control system of the control subsystem of an ADV; determining an error between a measured actuation action output by the control subsystem and a reference actuation output generated by a model reference system based upon a second control input; determining an adaptive gain based upon the error; and outputting a second actuation command to actuate the control subsystem based upon the measured actuation action output by the control subsystem, the first control input, and the adaptive gain; wherein the reference actuation output is based at least in part on second order attributes of the control subsystem, and characterized in that the second order attributes of the control subsystem include time-latency in initiating a control action of the control subsystem. receiving a first control input to a feedback controller of an actuation control system of the control subsystem of an ADV; determining an error between a measured actuation action output by the control subsystem and a reference actuation output generated by a model reference system based upon a second control input; determining an adaptive gain based upon the error; and outputting a second actuation command to actuate the control subsystem based upon the measured actuation action output by the control subsystem, the first control input, and the adaptive gain; wherein the reference actuation output is based at least in part on second order attributes of the control subsystem, and characterized in that the second order attributes of the control subsystem include time-latency in initiating a control action of the control subsystem.
An image sensor adapted for inspection of products in a production line of a factory, comprising a body module , and a lens module and an imaging module installed in the body module , characterized in that the body module comprises: an acquisition part acquiring imaging element specification information indicating a size of an imaging element in the imaging module from the installed imaging module and acquiring optical system specification information indicating a specification of an optical system in the lens module from the installed lens module ; a correction part , to which shading correction information is settable, performing shading correction on image data outputted by the imaging module according to the set shading correction information; and a generation and setting part generating shading correction information corresponding to a combination of the imaging module and the lens module based on the imaging element specification information and the optical system specification information acquired by the acquisition part , and setting the shading correction information to the correction part . an acquisition part acquiring imaging element specification information indicating a size of an imaging element in the imaging module from the installed imaging module and acquiring optical system specification information indicating a specification of an optical system in the lens module from the installed lens module ; a correction part , to which shading correction information is settable, performing shading correction on image data outputted by the imaging module according to the set shading correction information; and a generation and setting part generating shading correction information corresponding to a combination of the imaging module and the lens module based on the imaging element specification information and the optical system specification information acquired by the acquisition part , and setting the shading correction information to the correction part .
Optical security element comprising areas with non-periodic, anisotropic surface relief microstructures, which have a surface modulation of transitions from bottom regions to top regions and from top regions to bottom regions, wherein a first and a second image is at least partially encoded by the non-periodic, anisotropic surface relief microstructure such that when light is incident on the surface of the element the first image is optimally visible under a first viewing angle and the second image is optimally visible under a second viewing angle, characterized in that the optical element has a region related to the first image and a region related to the second image, both having a non-periodic, anisotropic surface relief microstructure, such that the anisotropy directions of said regions of first and second image differ by an angle between 22.5° and 67.5°, wherein the anisotropy directions are the local directions along the grooves or valleys of the microstructure, wherein the term non-periodic means that the microstructure has an averaged one-dimensional autocorrelation function AC(x) that has an envelope, which decays to 10 % of the AC at x=0 within an autocorrelation length L, wherein the autocorrelation length L is smaller than three times an average lateral distance between adjacent transitions of top and bottom regions.
A method for making an EC material comprising providing a substrate, applying at least one metal linker directly to the substrate, applying at least one metal-coordinated organic complex to form a layer, washing the layer, drying the layer, and repeating the applying steps to obtain a multiple layer EC material.
A pack housing including an internal space capable of accommodating battery cells, the pack housing comprising: a venting hole provided in at least one surface of the pack housing to communicate with the internal space; and a hole cover assembly configured to cover the venting hole , wherein the hole cover assembly comprises: a filter mesh comprising a resin filter layer formed of a resin and a mesh integrated with the resin filter layer by insert injection, and placed in the venting hole ; and a mounting plate provided in a form of a frame having an empty center and coupled to the at least one surface of the pack housing while pressing an edge region of the filter mesh , wherein the mesh is formed of a metal material, and comprises a first mesh and a second mesh disposed to face the first mesh a predetermined distance apart from the first mesh , and the resin filter layer is located between the first mesh and the second mesh , or the resin filter layer comprises a first filter layer and a second filter layer disposed to face the first filter layer a predetermined distance apart from the first filter layer , and the mesh is formed of a metal material, and is located between the first filter layer and the second filter layer . a venting hole provided in at least one surface of the pack housing to communicate with the internal space; and a hole cover assembly configured to cover the venting hole , wherein the hole cover assembly comprises: a filter mesh comprising a resin filter layer formed of a resin and a mesh integrated with the resin filter layer by insert injection, and placed in the venting hole ; and a mounting plate provided in a form of a frame having an empty center and coupled to the at least one surface of the pack housing while pressing an edge region of the filter mesh , wherein the mesh is formed of a metal material, and comprises a first mesh and a second mesh disposed to face the first mesh a predetermined distance apart from the first mesh , and the resin filter layer is located between the first mesh and the second mesh , or the resin filter layer comprises a first filter layer and a second filter layer disposed to face the first filter layer a predetermined distance apart from the first filter layer , and the mesh is formed of a metal material, and is located between the first filter layer and the second filter layer .
Retractable leash for coiling and uncoiling a leash , in particular for walking an animal, comprising a leash reel which is rotatably mounted on a carrier and can be reset by means of resetting means into a coiled position in which the leash is wound up on the leash reel , and comprising blocking means for blocking the uncoiling of the leash from the leash reel , which blocking means have a brake which is frictionally engaged with the leash reel and which is designed as a band brake having a braking band, characterized in that the blocking means are two-stage and have latching means for positive blocking of the uncoiling as a second stage, which latching means interact with protrusions in the region of the outer circumference of the leash reel , and in that a brake button is provided for actuating the brake and the second stage.
A tympanic membrane transducer , comprising: a chassis ; a perimeter platform connected to the chassis ; a microactuator connected to the chassis through at least one bias spring positioned at a proximal end of the microactuator ; a damper attached to the at least one bias spring to dampen the motion of the at least one bias spring ; and an umbo platform attached to a distal end of the microactuator . a chassis ; a perimeter platform connected to the chassis ; a microactuator connected to the chassis through at least one bias spring positioned at a proximal end of the microactuator ; a damper attached to the at least one bias spring to dampen the motion of the at least one bias spring ; and an umbo platform attached to a distal end of the microactuator .
A method for performing localisation of a first user device comprising an environment sensor , the method being performed in a localisation determiner and comprising the steps of: determining a dynamicity parameter indicating an extent of environment dynamicity for the first user device , based on motion properties of one or more user devices in the vicinity of the first user device , wherein the motion properties of the one or more user devices in the vicinity of the first user device include any of a linear speed or a rotational speed, and/or wherein the motion properties of the one or more user devices in the vicinity of the first user device are based on data from an Inertial Measurement Unit, IMU, of the one or more user devices in the vicinity of the first user device; determining when the dynamicity parameter indicates that the first user device is in a dynamic environment, by comparing the dynamicity parameter to a threshold value, wherein the threshold value is indicative of when to apply a localisation procedure of a cellular network and when to apply a localisation procedure using at least one environment sensor of the first user device; triggering localisation to occur using localisation procedures of a cellular network to which the first user device is connected, when the first user device is determined to be in a dynamic environment; and triggering localisation to occur using at least one environment sensor of the first user device when the first user device is determined to not be in a dynamic environment, wherein the at least one environmental sensor is any of at least one visual sensor and/or at least one depth sensor. determining a dynamicity parameter indicating an extent of environment dynamicity for the first user device , based on motion properties of one or more user devices in the vicinity of the first user device , wherein the motion properties of the one or more user devices in the vicinity of the first user device include any of a linear speed or a rotational speed, and/or wherein the motion properties of the one or more user devices in the vicinity of the first user device are based on data from an Inertial Measurement Unit, IMU, of the one or more user devices in the vicinity of the first user device; determining when the dynamicity parameter indicates that the first user device is in a dynamic environment, by comparing the dynamicity parameter to a threshold value, wherein the threshold value is indicative of when to apply a localisation procedure of a cellular network and when to apply a localisation procedure using at least one environment sensor of the first user device; triggering localisation to occur using localisation procedures of a cellular network to which the first user device is connected, when the first user device is determined to be in a dynamic environment; and triggering localisation to occur using at least one environment sensor of the first user device when the first user device is determined to not be in a dynamic environment, wherein the at least one environmental sensor is any of at least one visual sensor and/or at least one depth sensor.
A device for collapsing a tubular organ away from an area of an internal organ undergoing treatment by a thermal ablation so as to minimize thermal damage to the tubular organ, the device comprising: a tube portion having at least one internal lumen connecting to at least one fenestration disposed on an outer surface between a proximal end and a distal end; a connecting conduit coupled to the proximal end of said tube portion , said connecting conduit housing a suction line connected to said at least one internal lumen and interfacing with a suction source; a first sealing feature disposed at said proximal end of said tube portion ; and a second sealing feature disposed at said distal end of said tube portion ; wherein: said tube portion is adapted for insertion into a tubular organ of a mammalian subj ect; said first and second sealing features form reversible seals against the wall of said tubular organ; and said first and second sealing features are configured to selectively expand to contact a wall of the tubular organ and contract to draw away from the wall. a tube portion having at least one internal lumen connecting to at least one fenestration disposed on an outer surface between a proximal end and a distal end; a connecting conduit coupled to the proximal end of said tube portion , said connecting conduit housing a suction line connected to said at least one internal lumen and interfacing with a suction source; a first sealing feature disposed at said proximal end of said tube portion ; and a second sealing feature disposed at said distal end of said tube portion ; said tube portion is adapted for insertion into a tubular organ of a mammalian subj ect; said first and second sealing features form reversible seals against the wall of said tubular organ; and said first and second sealing features are configured to selectively expand to contact a wall of the tubular organ and contract to draw away from the wall.
Soleplate for a steam iron comprising a number of holes for the emission of steam, which holes are concentrated in the area of the soleplate near to the tip, characterized in that : the number of holes is comprised between 5 and 23; being A the length of the soleplate measured from the tip to the rear end, and B the distance from the tip to the hole for the emission of steam which is further away from the tip, the ratio B/A is equal to or lower than 0.4; and the soleplate presents a pressing portion which is in contact with the ironing surface, and a raised portion, such that the ratio between the pressing portion and the total surface of the soleplate is comprised between 0.40 and 0.75 the number of holes is comprised between 5 and 23; being A the length of the soleplate measured from the tip to the rear end, and B the distance from the tip to the hole for the emission of steam which is further away from the tip, the ratio B/A is equal to or lower than 0.4; and the soleplate presents a pressing portion which is in contact with the ironing surface, and a raised portion, such that the ratio between the pressing portion and the total surface of the soleplate is comprised between 0.40 and 0.75
A hybrid compound of formula I wherein X = CH 2 or S Spacer = (CH 2 ) n , n=0 or CH 2 OCH 2 Het is selected from X = CH 2 or S Spacer = (CH 2 ) n , n=0 or CH 2 OCH 2 Het is selected from
Device for generating a standing wave comprising a wave pool , a water return channel and a compartment , wherein the wave pool comprises a wave area and a suction area , wherein the suction area is arranged downstream of the wave area and is connected to the water return channel and wherein the water return channel is connected to the compartment , wherein the compartment includes an outlet device having an outlet opening through which water can be directed into the wave pool , and wherein a ramp is arranged directly adjacent to the outlet device and adjoins an obstacle at an adjacent location , the ramp being inclined downwardly in the direction of flow over its entire length from the outlet opening to the obstacle , characterized in that the obstacle extends over the entire width of the wave pool , in that an incline of a first water guiding surface of the ramp at the adjacent location is essentially equal to an incline of a second water guiding surface of the obstacle , the obstacle having a curvature which is designed to slope down to a turning point and to slope up after the turning point.
A device for operating a UVC emitting cart without personal UVC exposure for sanitizing a surface, comprising: a mobile body configured to travel over a surface; and a source of UV radiation mounted to the mobile body and configured to direct UV radiation to the surface at a predetermined dosage; an arm mounted to the mobile body, a UV lamp mounted on the arm, the arm being extendable from the mobile body at a position movable over an area and the UV lamp being directed to an area for sanitizing, a UVC protective shield , characterized in that the shield provides an enclosure that partly envelopes and separates the operator from the UVC exposure in the surrounding environment.
A heart valve system comprising: a radially self-expandable tubular body having an inflow end and an outflow end ; a valve coupled to the tubular body , the valve including a plurality of valve leaflets ; and a tubular fabric disposed on an outer surface of the tubular body , the fabric having an inflow end and an outflow end , wherein the valve leaflets extend distally of the outflow end of the tubular body in an outflow direction, characterized in that the outflow end of the fabric is directly connected to an outer circumferential edge of the valve . a radially self-expandable tubular body having an inflow end and an outflow end ; a valve coupled to the tubular body , the valve including a plurality of valve leaflets ; and a tubular fabric disposed on an outer surface of the tubular body , the fabric having an inflow end and an outflow end , wherein the valve leaflets extend distally of the outflow end of the tubular body in an outflow direction, characterized in that the outflow end of the fabric is directly connected to an outer circumferential edge of the valve .
A motor vehicle with at least one induction coil for inductively charging an energy accumulator, wherein the induction coil is attached to an underbody protection element of an underbody of the motor vehicle which is provided for protecting at least one component of the motor vehicle, wherein the underbody protection element at least partially delimits a receiving region in which the induction coil is at least partially accommodated, and wherein the induction coil is covered downwards at least partially by at least one covering element , characterised in that runners extending in the longitudinal direction of the vehicle and projecting downwards are arranged on the underbody along the sides of the underbody protection element which are located opposite in the transverse direction of the vehicle.
A medical device, comprising: a valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); an interface member (104; 404; 504; 604; 704; 1504; 1604) including a proximal end (145; 1545; 1645) having a proximal surface (111-1) and a first connector portion and a second connector portion, the first connector portion coupleable to the valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); and a first indicator (108; 208; 308; 408-1; 508-1; 608-1; 708-1) including at least first and second raised surfaces (112-1, 112-2) on the proximal surface (111-1) of the interface member (104; 404; 504; 604; 704; 1504; 1604), wherein the first raised surface (112-1) includes a symbol and the second raised surface (112-2) includes a geometric shape surrounding the symbol. a valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); an interface member (104; 404; 504; 604; 704; 1504; 1604) including a proximal end (145; 1545; 1645) having a proximal surface (111-1) and a first connector portion and a second connector portion, the first connector portion coupleable to the valve stem (106; 206; 306; 406; 506; 606; 706; 1506; 1706); and a first indicator (108; 208; 308; 408-1; 508-1; 608-1; 708-1) including at least first and second raised surfaces (112-1, 112-2) on the proximal surface (111-1) of the interface member (104; 404; 504; 604; 704; 1504; 1604), wherein the first raised surface (112-1) includes a symbol and the second raised surface (112-2) includes a geometric shape surrounding the symbol.