mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adaptation of a levelling control of a road finishing machine , comprising - acquiring first soil profile data L0 of a first soil profile 80 of a subgrade in an environment of the road finishing machine at the time t0, when the road finishing machine is located at the position x0; - acquiring second soil profile data L1 of a second soil profile B1 of the subgrade in an environment of the road finishing machine at the time t1, when the road finishing machine is located at the position x1, and wherein the second soil profile B1 partially overlaps the first soil profile B0; - determining a displacement and rotation matrix M which represents a movement of the road finishing machine in space from the time t0 to the time t1; - creating corrected soil profile data L1' from the soil profile data L1 using the matrix M; - defining an analysis region LA which comprises at least a part of the soil profile data L0 and/or a part of the corrected soil profile data L1'; - analyzing the analysis region LA, in particular determining height changes; - adjusting the levelling control for the extent of the analysis region LA based on the data acquired during the analysis. - acquiring first soil profile data L0 of a first soil profile 80 of a subgrade in an environment of the road finishing machine at the time t0, when the road finishing machine is located at the position x0; - acquiring second soil profile data L1 of a second soil profile B1 of the subgrade in an environment of the road finishing machine at the time t1, when the road finishing machine is located at the position x1, and wherein the second soil profile B1 partially overlaps the first soil profile B0; - determining a displacement and rotation matrix M which represents a movement of the road finishing machine in space from the time t0 to the time t1; - creating corrected soil profile data L1' from the soil profile data L1 using the matrix M; - defining an analysis region LA which comprises at least a part of the soil profile data L0 and/or a part of the corrected soil profile data L1'; - analyzing the analysis region LA, in particular determining height changes; - adjusting the levelling control for the extent of the analysis region LA based on the data acquired during the analysis.
An electrical stimulation apparatus for the stimulation of at least one lumbricalis muscle and at least one interossei muscle in a hand, the apparatus comprising a multi-channel stimulator wherein the apparatus is preprogrammed to, upon activation, automatically execute the following protocol: a. stimulate at least one finger extensor muscle; b. stimulate at least one lumbricalis muscle using an electrical pulse; c. relax the at least one lumbricalis muscle; and d. relax the at least one finger extensor muscle; wherein the apparatus is preprogrammed to repeat a. to d. between 5 and 30 times. a. stimulate at least one finger extensor muscle; b. stimulate at least one lumbricalis muscle using an electrical pulse; c. relax the at least one lumbricalis muscle; and d. relax the at least one finger extensor muscle;
A waterproof sound-transmitting membrane comprising: a resin film of a non-porous base sheet of resin having formed therein a plurality of through holes that are straight holes having a constant cross-sectional shape, the plurality of through holes extending through the resin film along a straight line in a thickness direction of the resin film ; and a treatment layer having water repellency, the treatment layer being formed on at least one of two surfaces of the resin film that are opposite to each other in the thickness direction, the treatment layer having openings at positions corresponding to the plurality of through holes , wherein the waterproof sound-transmitting membrane has an air permeability of 100 seconds/100 mL or less in terms of Gurley number, the through holes have a hole diameter in the range from 0.01μm to 10 μm, and a proportion of the sum of the cross-sectional areas of all the through holes to the area defined by the outline of the resin film is less than 50 %. a resin film of a non-porous base sheet of resin having formed therein a plurality of through holes that are straight holes having a constant cross-sectional shape, the plurality of through holes extending through the resin film along a straight line in a thickness direction of the resin film ; and a treatment layer having water repellency, the treatment layer being formed on at least one of two surfaces of the resin film that are opposite to each other in the thickness direction, the treatment layer having openings at positions corresponding to the plurality of through holes , wherein the waterproof sound-transmitting membrane has an air permeability of 100 seconds/100 mL or less in terms of Gurley number, the through holes have a hole diameter in the range from 0.01μm to 10 μm, and a proportion of the sum of the cross-sectional areas of all the through holes to the area defined by the outline of the resin film is less than 50 %.
A metrology unit, comprising: a metrology sensor configured to measure velocity of gas flow; a processor configured to receive data from the metrology sensor and to calculate gas volume, wherein the processor is configured to: calculate a velocity of a gas stream based on a time differential between transmission of signals from a pair of ultrasonic transducers ; determine a cross-section of the gas flow; and derive gas flow volume based on the calculated gas stream velocity and the determined cross-section of the gas flow; a memory device to store the data from the metrology sensor ; a battery to power the metrology sensor , the processor and the memory device ; and an enclosure to enclose the metrology sensor , the processor , the memory device and the battery , wherein an interior portion of the enclosure is configured for gas flow, and wherein: the processor is additionally configured to calculate totalized data to have accuracy that is within a threshold value prior to transmission of the totalized data, the metrology unit additionally comprising: an interface configured to transmit the totalized data to an index unit (106; 254). a metrology sensor configured to measure velocity of gas flow; a processor configured to receive data from the metrology sensor and to calculate gas volume, wherein the processor is configured to: calculate a velocity of a gas stream based on a time differential between transmission of signals from a pair of ultrasonic transducers ; determine a cross-section of the gas flow; and derive gas flow volume based on the calculated gas stream velocity and the determined cross-section of the gas flow; calculate a velocity of a gas stream based on a time differential between transmission of signals from a pair of ultrasonic transducers ; determine a cross-section of the gas flow; and derive gas flow volume based on the calculated gas stream velocity and the determined cross-section of the gas flow; a memory device to store the data from the metrology sensor ; a battery to power the metrology sensor , the processor and the memory device ; and an enclosure to enclose the metrology sensor , the processor , the memory device and the battery , wherein an interior portion of the enclosure is configured for gas flow, and wherein: the processor is additionally configured to calculate totalized data to have accuracy that is within a threshold value prior to transmission of the totalized data, the metrology unit additionally comprising: an interface configured to transmit the totalized data to an index unit (106; 254).
A surgical system , comprising: a console ; a handpiece ; and a cassette that couples the handpiece with the console ; the cassette comprising a front housing , a fluid manifold and a drain bag assembly ; wherein the fluid manifold is over-molded as an integrated component such that it has a unibody construction, and the fluid manifold is removably coupled to at least the front housing and drain bag assembly , characterised in that the manifold further comprises a plurality of valves . a console ; a handpiece ; and a cassette that couples the handpiece with the console ; the cassette comprising a front housing , a fluid manifold and a drain bag assembly ; wherein the fluid manifold is over-molded as an integrated component such that it has a unibody construction, and the fluid manifold is removably coupled to at least the front housing and drain bag assembly , characterised in that the manifold further comprises a plurality of valves .
An anti-glare film comprising: a laminate comprising a light transmitting substrate, and a hard coating layer comprising a binder resin and inorganic particles and organic particles dispersed in the binder resin, wherein a difference (Ha - Hi) between a total haze(Ha) and an internal haze(Hi) of the laminate is 5 to 15%, and in the IR spectrum of the laminate, a rate(I B / I A ) of the peak area (I B ) existing between 1500 cm -1 to 1570 cm -1 , to the peak area (I A ) existing between 1690 cm -1 to 1745 cm -1 is 0.1 to 0.6, and a transmission diffusion distribution of the laminate according to the following Formula 1 is greater than 1% and less than 10%: transmission diffusion distribution = B / A × 100 wherein A is transmission intensity of light transmitted in the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate, and B is transmission diffusion intensity of light transmitted at +1° or -1°based on the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate. a laminate comprising a light transmitting substrate, and a hard coating layer comprising a binder resin and inorganic particles and organic particles dispersed in the binder resin, wherein a difference (Ha - Hi) between a total haze(Ha) and an internal haze(Hi) of the laminate is 5 to 15%, and in the IR spectrum of the laminate, a rate(I B / I A ) of the peak area (I B ) existing between 1500 cm -1 to 1570 cm -1 , to the peak area (I A ) existing between 1690 cm -1 to 1745 cm -1 is 0.1 to 0.6, and a transmission diffusion distribution of the laminate according to the following Formula 1 is greater than 1% and less than 10%: transmission diffusion distribution = B / A × 100 wherein A is transmission intensity of light transmitted in the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate, and B is transmission diffusion intensity of light transmitted at +1° or -1°based on the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate.
A brake system , comprising: a rotor rotationally connected to a shaft configured to rotate around a central axis , the rotor having a first side opposite from a second side , a first stator structure on the first side of the rotor, and a second stator structure on the second side of the rotor, and a first wobble plate between the first side of the rotor and the first stator structure, and a second wobble plate between the second side of the rotor and the second stator structure, wherein each of the first and second wobble plates are configured to nutate when the first and second stator structures decrease rotation rate compared to the rotation rate of the rotor. a rotor rotationally connected to a shaft configured to rotate around a central axis , the rotor having a first side opposite from a second side , a first stator structure on the first side of the rotor, and a second stator structure on the second side of the rotor, and a first wobble plate between the first side of the rotor and the first stator structure, and a second wobble plate between the second side of the rotor and the second stator structure, wherein each of the first and second wobble plates are configured to nutate when the first and second stator structures decrease rotation rate compared to the rotation rate of the rotor.
A method of forming a gas turbine engine component (60; 160) comprising: attaching a cover skin (70; 170) to an airfoil body (68; 168), the airfoil body (68; 168) and the cover skin (70; 170) cooperating to define pressure and suction sides (PS, SS) of an airfoil (61; 161); and characterized by moving the airfoil (61; 161) in a forming line including a plurality of stations , the plurality of stations including a set of heating stations , a deforming station and a set of cool down stations wherein the moving step includes positioning the airfoil (61; 161) in the set of heating stations to progressively increase a temperature of the airfoil (61; 161), then positioning the airfoil (61; 161) in the deforming station including causing the airfoil (61; 161) to deform between first and second dies , and then positioning the airfoil (61; 161) in the set of cool down stations to progressively decrease the temperature of the airfoil (61; 161). attaching a cover skin (70; 170) to an airfoil body (68; 168), the airfoil body (68; 168) and the cover skin (70; 170) cooperating to define pressure and suction sides (PS, SS) of an airfoil (61; 161); and characterized by moving the airfoil (61; 161) in a forming line including a plurality of stations , the plurality of stations including a set of heating stations , a deforming station and a set of cool down stations wherein the moving step includes positioning the airfoil (61; 161) in the set of heating stations to progressively increase a temperature of the airfoil (61; 161), then positioning the airfoil (61; 161) in the deforming station including causing the airfoil (61; 161) to deform between first and second dies , and then positioning the airfoil (61; 161) in the set of cool down stations to progressively decrease the temperature of the airfoil (61; 161).
A protective sheath for a spring of predetermined format, the sheath comprising a body extending between a first end and a second end and defining a cylindrical housing for a spring of the predetermined format, the housing having a diameter (D) greater than a diameter of the spring and a length (L) greater than the length of the spring, - the first end being closed off at least in part by a transverse portion forming an axial stop for a spring of the predetermined format housed in the housing , and - at the second end : ∘ the body comprising an opening for inserting a spring of the predetermined format into the housing or for extracting it therefrom, and ∘ the sheath comprising at least one arm , movable between a stable position, in which it is across the opening and forms an axial stop for a spring of the predetermined format housed in the housing , and an unstable position, in which it is moved away and the opening cleared. - the first end being closed off at least in part by a transverse portion forming an axial stop for a spring of the predetermined format housed in the housing , and - at the second end : ∘ the body comprising an opening for inserting a spring of the predetermined format into the housing or for extracting it therefrom, and ∘ the sheath comprising at least one arm , movable between a stable position, in which it is across the opening and forms an axial stop for a spring of the predetermined format housed in the housing , and an unstable position, in which it is moved away and the opening cleared. ∘ the body comprising an opening for inserting a spring of the predetermined format into the housing or for extracting it therefrom, and ∘ the sheath comprising at least one arm , movable between a stable position, in which it is across the opening and forms an axial stop for a spring of the predetermined format housed in the housing , and an unstable position, in which it is moved away and the opening cleared.
Apparatus for processing data, comprising: processing circuitry to perform processing operations specified by program instructions; and a decoder to decode instructions for memory access to generate control signals to control said processing circuitry to perform operations for the memory access; wherein said instructions for memory access have respective encodings specifying: instructions for protected memory access corresponding to operations for the protected memory access; and instructions for less-protected memory access corresponding to operations for the less-protected memory access; and said instructions for the less-protected memory access are associated with less restrictive conditions for the memory access than said protected memory access; and said processing circuitry has a plurality of exception level states comprising lower exception level states and higher exception level states and a memory address accessed with an instruction for the less-protected memory access within a program executing at an exception level state within said plurality of exception level states is shared with programs executing in said higher exception level states within said plurality of exception level states and another memory address accessed with another instruction for the protected memory access within another program executing at another exception level state within said plurality of exception level states is private to said other program. processing circuitry to perform processing operations specified by program instructions; and a decoder to decode instructions for memory access to generate control signals to control said processing circuitry to perform operations for the memory access; wherein said instructions for memory access have respective encodings specifying: instructions for protected memory access corresponding to operations for the protected memory access; and instructions for less-protected memory access corresponding to operations for the less-protected memory access; and instructions for protected memory access corresponding to operations for the protected memory access; and instructions for less-protected memory access corresponding to operations for the less-protected memory access; and said instructions for the less-protected memory access are associated with less restrictive conditions for the memory access than said protected memory access; and said processing circuitry has a plurality of exception level states comprising lower exception level states and higher exception level states and a memory address accessed with an instruction for the less-protected memory access within a program executing at an exception level state within said plurality of exception level states is shared with programs executing in said higher exception level states within said plurality of exception level states and another memory address accessed with another instruction for the protected memory access within another program executing at another exception level state within said plurality of exception level states is private to said other program.
A computer-implemented method for providing secure access to a computer, the method comprising: capturing a first image of a user with a camera at the computer in response to the user logging into a user account on the computer; extracting facial features from the first image; periodically detecting, after the capturing of the first image and while the user is still logged into the user account, whether a human face is in front of the computer to determine that the user is still at the computer, by capturing a lower-resolution image with the camera and determining whether a human face is present in the lower-resolution image; capturing, after detecting that the human face is not in front of the computer, one or more subsequent images with the camera at the computer, wherein the lower-resolution image has a resolution lower than the one or more subsequent images; extracting facial features from the one or more subsequent images; comparing the facial features extracted from the one or more subsequent images with the facial features extracted from the first image; if the facial features extracted from one or more of the one or more subsequent images match the facial features extracted from the first image, then staying logged into the user account; and if the facial features extracted from the one or more subsequent images do not match the facial features extracted from the first image, then automatically logging out of the user account. capturing a first image of a user with a camera at the computer in response to the user logging into a user account on the computer; extracting facial features from the first image; periodically detecting, after the capturing of the first image and while the user is still logged into the user account, whether a human face is in front of the computer to determine that the user is still at the computer, by capturing a lower-resolution image with the camera and determining whether a human face is present in the lower-resolution image; capturing, after detecting that the human face is not in front of the computer, one or more subsequent images with the camera at the computer, wherein the lower-resolution image has a resolution lower than the one or more subsequent images; extracting facial features from the one or more subsequent images; comparing the facial features extracted from the one or more subsequent images with the facial features extracted from the first image; if the facial features extracted from one or more of the one or more subsequent images match the facial features extracted from the first image, then staying logged into the user account; and if the facial features extracted from the one or more subsequent images do not match the facial features extracted from the first image, then automatically logging out of the user account.
A hearing protection device, comprising: a sound attenuating portion for being disposed within an ear canal of a user to obstruct a passage of sound; and a channel formed through the sound attenuating portion for allowing sound to pass through the sound attenuating portion , the channel having a tube disposed therein; wherein the channel extends from a first end of the sound attenuating portion to a second end of the sound attenuating portion , wherein the channel is substantially unobstructed, and wherein the first end is disposed in the ear canal and the second end extends from the ear canal when the hearing protection device is worn by the user; the hearing protection device being characterized by the tube being disposed proximate the second end of the sound attenuating portion; and the tube comprising a length that is less than a length of the channel . a sound attenuating portion for being disposed within an ear canal of a user to obstruct a passage of sound; and a channel formed through the sound attenuating portion for allowing sound to pass through the sound attenuating portion , the channel having a tube disposed therein; wherein the channel extends from a first end of the sound attenuating portion to a second end of the sound attenuating portion , wherein the channel is substantially unobstructed, and wherein the first end is disposed in the ear canal and the second end extends from the ear canal when the hearing protection device is worn by the user; the hearing protection device being characterized by the tube being disposed proximate the second end of the sound attenuating portion; and the tube comprising a length that is less than a length of the channel .