mhurhangee/patent-ind-claim-en huggingface dataset:
A lamp for a precision approach path indicator comprising at least two radiation sources emitting electromagnetic radiation of different wavelengths, a beam of a radiation of a first wavelength and a beam of a radiation of a second wavelength , a partition for separating the beam of the radiation of the first wavelength from the beam of the radiation of the second wavelength , while the partition is having a first width (a), wherein the lamp is further provided with an offsetting element that offsets at least one of the beams towards the other of the beams by a second width (c) to compensate the obstruction created by the partition , characterized in that wherein the offsetting element is a glass prism with two parallel first faces of a width (b), so that when the offsetting element is angled towards the beam of the second wavelength it creates a light path that is offset by the first width (a) of the partition , and with at least one second face angled in respect of the parallel first faces so when the offsetting element is angled towards the beam of the second wavelength the second face is parallel to and below the beam of the first wavelength . at least two radiation sources emitting electromagnetic radiation of different wavelengths, a beam of a radiation of a first wavelength and a beam of a radiation of a second wavelength , a partition for separating the beam of the radiation of the first wavelength from the beam of the radiation of the second wavelength , while the partition is having a first width (a), wherein the lamp is further provided with an offsetting element that offsets at least one of the beams towards the other of the beams by a second width (c) to compensate the obstruction created by the partition , characterized in that wherein the offsetting element is a glass prism with two parallel first faces of a width (b), so that when the offsetting element is angled towards the beam of the second wavelength it creates a light path that is offset by the first width (a) of the partition , and with at least one second face angled in respect of the parallel first faces so when the offsetting element is angled towards the beam of the second wavelength the second face is parallel to and below the beam of the first wavelength .
A sintered body comprising a first material and cubic boron nitride, the first material being partially-stabilized ZrO 2 including 5 to 90 volume % of Al 2 O 3 dispersed in crystal grain boundaries or crystal grains of partially-stabilized ZrO 2 , the sintered body including 20 to 80 volume% of the first material.
The method for preparing a cyclic carbonate functional polyester, said method comprising the stages: A) reacting glycerine carbonate with an acid anhydride to form an Adduct (A); B) providing a carboxyl functional polyester; C) reacting said carboxyl functional polyester with at least one diglycidyl ether to form an epoxy functional polyester; and, D) reacting said epoxy functional polyester with said Adduct (A) to form said cyclic carbonate functional polyester. A) reacting glycerine carbonate with an acid anhydride to form an Adduct (A); B) providing a carboxyl functional polyester; C) reacting said carboxyl functional polyester with at least one diglycidyl ether to form an epoxy functional polyester; and, D) reacting said epoxy functional polyester with said Adduct (A) to form said cyclic carbonate functional polyester.
An apparatus for determining a refractive error of an eye , comprising: a camera configured to capture an image of light from the eye, and an optical power changing device configured to vary an optical power of a light path from the eye to the camera , wherein the apparatus comprises a computing device which is configured to calculate the refractive error of the eye based on a series of images of light from the eye captured by the camera with varying optical power using the series of images as at least approximate point spread functions, by determining an optical power where the point spread function is sharpest for at least three meridians, and calculate the refractive error based on the optical powers where the point spread function is sharpest determined for the at least three meridians. a camera configured to capture an image of light from the eye, and an optical power changing device configured to vary an optical power of a light path from the eye to the camera , wherein the apparatus comprises a computing device which is configured to calculate the refractive error of the eye based on a series of images of light from the eye captured by the camera with varying optical power using the series of images as at least approximate point spread functions, by determining an optical power where the point spread function is sharpest for at least three meridians, and calculate the refractive error based on the optical powers where the point spread function is sharpest determined for the at least three meridians.
One or more formulations of tagged proteins and one or more therapeutically-effective populations of anti-tag chimeric antigen receptor (AT-CAR) expressing T cells, wherein the protein is an antibody or an antigen-binding fragment thereof which binds a tumor-associated antigen (TAA) and the proteins of each formulation of tagged proteins are the same or different and the AT-CARs of each population of AT-CAR-expressing T cells are the same or different and the AT-CAR comprises a tag-binding domain, a transmembrane domain, and a T cell activation domain, wherein the AT-CAR-expressing T cells bind the tag of the tagged proteins and induce cancer cell death, for use in a combination therapy for treating cancer in a subject wherein said one or more formulations of tagged proteins and said one or more populations of (AT-CAR)-expressing T cells are both administered to the subject, thereby treating cancer in the subject.
Drainage system for draining a fluid from a fluid filter, in particular for a water trap of a fuel or for an oil filter, comprising: - a filter housing element with a drain hole for fluidly connecting an inside of the housing element with an outside of the housing element ; - a drain plug having a longitudinal axis ; - a sealing ring seated on the drain plug for a fluid-tight closure of the drain hole ; - a drain channel provided in the drain plug for the fluid, the drain channel having a radial inlet opening and an outlet opening located at a first end of the drain plug ; - a ventilation channel provided in the drain plug having a first orifice located at the first end of the drain plug and having a second orifice which is located at the other end of the drain plug or, in an axial direction, in between the inlet opening of the drain channel and the said second end of the drain plug ; wherein the sealing ring sealingly abuts against the housing element in an axial and a radial direction when the drain plug is positioned in its closing position; and wherein, upon an axial movement of the drain plug from the said closing position into a drainage position, a radially inward edge portion of the sealing ring is dislodged from its axially sealing abutment against the filter housing element by the drain plug while a sealing abutment of an outer edge portion of the sealing ring against the housing element and a sealing abutment of the radially inward edge portion of the sealing ring against the drain plug is maintained such that the drain hole is fluidly connected both to the inlet opening of the drain channel and the second orifice of the ventilation channel , characterized in that the sealing ring is configured and designed such that it functions as a bistable spring element which, when the drain plug is moved in an axial direction from its closing position to its drainage position, is forced by bulging from a first stable conformation for sealing to a second stable conformation for drainage. - a filter housing element with a drain hole for fluidly connecting an inside of the housing element with an outside of the housing element ; - a drain plug having a longitudinal axis ; - a sealing ring seated on the drain plug for a fluid-tight closure of the drain hole ; - a drain channel provided in the drain plug for the fluid, the drain channel having a radial inlet opening and an outlet opening located at a first end of the drain plug ; - a ventilation channel provided in the drain plug having a first orifice located at the first end of the drain plug and having a second orifice which is located at the other end of the drain plug or, in an axial direction, in between the inlet opening of the drain channel and the said second end of the drain plug ;
An intracortical-detection device comprising: - at least one electrode designed to contact a group of neurons; - a first body , forming a surface designed to contact a portion of a cerebral region; - a first motor configured to move said at least one electrode with respect to said first body; and - a second motor , which is fixed with respect to the first body; and - a second body , operatively connected to said second motor, said first and second bodies being able to slide with respect to one another in a first direction (x), under the action of said second motor; - a crank (16; 90), which is coupled to said second body and can be driven in rotation by said second motor about a second direction (R) transverse with respect to said first direction (x); and - constraint means designed to prevent the motion of said first body with respect to said second body in directions different from said first direction; characterized by further comprising sensor means configured to generate an electrical signal indicating a pressure exerted by said portion of cerebral region on said surface; wherein said sensor means comprise transducer means arranged on said crank and configured to vary an own electrical quantity as a function of a deformation of said crank caused by the pressure exerted by said portion of cerebral region on said surface. - at least one electrode designed to contact a group of neurons; - a first body , forming a surface designed to contact a portion of a cerebral region; - a first motor configured to move said at least one electrode with respect to said first body; and - a second motor , which is fixed with respect to the first body; and - a second body , operatively connected to said second motor, said first and second bodies being able to slide with respect to one another in a first direction (x), under the action of said second motor; - a crank (16; 90), which is coupled to said second body and can be driven in rotation by said second motor about a second direction (R) transverse with respect to said first direction (x); and - constraint means designed to prevent the motion of said first body with respect to said second body in directions different from said first direction; characterized by further comprising
A rolling bearing comprising: an outer ring ; an inner ring part ; a plurality of rolling elements ; a cage configured to rollably hold the plurality of rolling elements , and a shield , wherein an inner peripheral surface (21c 31c) of at least one axial end portion of the outer ring is provided with a large-diameter part , which has a diameter larger than an inner diameter of the outer ring , opens outward in an axial direction, and has an axial width greater than an axial width of the shield , characterized in that an outer shape surface of the shield is configured by a plurality of circular arcs having a same central angle and equidistantly arranged on a circumference and a plurality of chords connecting adjacent circular arcs each other, and the shield is press-fitted and fixed to the large-diameter part . an outer ring ; an inner ring part ; a plurality of rolling elements ; a cage configured to rollably hold the plurality of rolling elements , and a shield , wherein an inner peripheral surface (21c 31c) of at least one axial end portion of the outer ring is provided with a large-diameter part , which has a diameter larger than an inner diameter of the outer ring , opens outward in an axial direction, and has an axial width greater than an axial width of the shield , characterized in that an outer shape surface of the shield is configured by a plurality of circular arcs having a same central angle and equidistantly arranged on a circumference and a plurality of chords connecting adjacent circular arcs each other, and the shield is press-fitted and fixed to the large-diameter part .
Sealing strand for sealing a movable vehicle window pane , having a sealing portion with flocking for sliding abutment against the vehicle window pane , wherein the flocking is formed by pieces of fibre which are adhesively bonded at one end to the surface, in a preferred direction perpendicular to the flocked surface, characterized in that , with a length of the pieces of fibre being smaller than 0.4 mm, the linear density of the pieces of fibre lies below 0.5 dTex.
A data transmission control method performed by a data transmission control apparatus, the method comprising: a.) acquiring (step 101) a retransmission identification parameter of a user equipment; b.) determining (step 102), according to the retransmission identification parameter, whether the user equipment can identify retransmitted data that belongs to a same hybrid automatic repeat request, HARQ, process as initially transmitted data and that is in a rated transmission interval following receiving of the initially transmitted data; and c.) if yes in step b.), sending within the rated transmission interval after the initial transmission, the retransmitted data to the user equipment for at least once by using the HARQ process that is the same as the HARQ process in which the initially transmitted data is located (step 103); d.) if no in step b.), sending within the rated transmission interval after the initial transmission, the initially transmitted data for at least once by using another HARQ process that is different from the HARQ process in which the initially transmitted data is located (step 501). a.) acquiring (step 101) a retransmission identification parameter of a user equipment; b.) determining (step 102), according to the retransmission identification parameter, whether the user equipment can identify retransmitted data that belongs to a same hybrid automatic repeat request, HARQ, process as initially transmitted data and that is in a rated transmission interval following receiving of the initially transmitted data; and c.) if yes in step b.), sending within the rated transmission interval after the initial transmission, the retransmitted data to the user equipment for at least once by using the HARQ process that is the same as the HARQ process in which the initially transmitted data is located (step 103); d.) if no in step b.), sending within the rated transmission interval after the initial transmission, the initially transmitted data for at least once by using another HARQ process that is different from the HARQ process in which the initially transmitted data is located (step 501).
A method (S100, S200, S300) for estimating an extracorporeal blood volume in a portion of a sample, the method (S100, S200, S300) comprising: at one or more processors : segmenting an image of the sample into multiple regions, one or more of the multiple regions of the image corresponding to the portion of the sample; extracting a color-related feature from a region among the one or more regions that correspond to the portion of the sample; tagging the region among the one or more regions that correspond to the portion of the sample with a blood volume indicator according to the extracted color-related feature (S120, S220); and estimating the extracorporeal blood volume in at least the portion of the sample associated with the tagged region of the image of the sample, according to the blood volume indicator (S130, S130, S340). segmenting an image of the sample into multiple regions, one or more of the multiple regions of the image corresponding to the portion of the sample; extracting a color-related feature from a region among the one or more regions that correspond to the portion of the sample; tagging the region among the one or more regions that correspond to the portion of the sample with a blood volume indicator according to the extracted color-related feature (S120, S220); and estimating the extracorporeal blood volume in at least the portion of the sample associated with the tagged region of the image of the sample, according to the blood volume indicator (S130, S130, S340).
An operating mechanism of a miniature circuit breaker, comprising a handle pivotally installed on a housing , a driving connecting rod , a stationary contact and a moving contact arranged in the housing , wherein: the operating mechanism of a miniature circuit breaker further comprises a tension spring and a trip lever , one end of the driving connecting rod is hinged with the handle , one end of the tension spring is fixed on the housing , and the other end of the tension spring is connected to the moving contact ; the moving contact is driven by the tension spring and the driving connecting rod together to provide a contact pressure and an overstretching elastic force required for ensuring the reliability of electrical contact for closing the moving contact and the stationary contact , and the tension spring provides an energy storage elastic force required for resetting the mechanism for breaking the moving contact from the stationary contact ; and the trip lever is arranged on the moving contact , and is used to control the locking and unlocking cooperation between the driving connecting rod and the moving contact , when a failure occurs, the trip lever separates the driving connecting rod from the moving contact so that the operating mechanism automatically trips, characterised in that the other end of the driving rod is matched with the moving contact .
A method of wireless communication by a user equipment , UE, comprising: transmitting a first signal at a first transmission power based on time-averaged radio frequency, RF, exposure measurements over a time window (T1); storing RF exposure information associated with the time window; detecting that an exception event associated with the UE occurred, wherein the exception event results in unknown RF exposure for a portion of time; and transmitting a second signal at a second transmission power based at least in part on the stored RF exposure information in response to the detection of the exception event and in response to a determination that the stored RF exposure information passes a reliability check. transmitting a first signal at a first transmission power based on time-averaged radio frequency, RF, exposure measurements over a time window (T1); storing RF exposure information associated with the time window; detecting that an exception event associated with the UE occurred, wherein the exception event results in unknown RF exposure for a portion of time; and transmitting a second signal at a second transmission power based at least in part on the stored RF exposure information in response to the detection of the exception event and in response to a determination that the stored RF exposure information passes a reliability check.
A hydraulic brake mechanism having an inlet configured to be coupled to a power source and an outlet configured to be coupled to a hydraulic motor , wherein the inlet includes a first port (P1) configured to be coupled to the power source to receive pressurized hydraulic fluid from the power source and a second port (P2) configured to be coupled to the power source to return hydraulic fluid to the power source and wherein the outlet includes a third port (M1) configured to be coupled to the motor to provide pressurized hydraulic fluid received at the first port to the motor and a fourth port (M2) configured to be coupled to the motor to receive hydraulic fluid from the motor, the hydraulic brake mechanism comprising a hydraulic brake movable between a non-braking position and a braking position in which the hydraulic brake is configured to apply a load to restrict the flow of hydraulic fluid through the hydraulic motor, the hydraulic brake positioned between the second port and the fourth port, the hydraulic brake mechanism further comprising: a trigger mechanism in communication with the hydraulic brake and configured to detect flow of hydraulic fluid from the power source at the inlet and communicate a brake trigger signal to the hydraulic brake based solely on the detected flow from the power source; wherein when the hydraulic brake is in the non-braking position and the trigger mechanism detects that the flow of hydraulic fluid from the power source has stopped, the brake trigger signal causes the hydraulic brake to move from the non-braking position to the braking position, and when the trigger mechanism detects that the flow of hydraulic fluid from the power source has been abruptly reduced but not stopped, the brake trigger signal causes the hydraulic brake to remain in the non-braking position. a hydraulic brake movable between a non-braking position and a braking position in which the hydraulic brake is configured to apply a load to restrict the flow of hydraulic fluid through the hydraulic motor, the hydraulic brake positioned between the second port and the fourth port, the hydraulic brake mechanism further comprising: a trigger mechanism in communication with the hydraulic brake and configured to detect flow of hydraulic fluid from the power source at the inlet and communicate a brake trigger signal to the hydraulic brake based solely on the detected flow from the power source; wherein when the hydraulic brake is in the non-braking position and the trigger mechanism detects that the flow of hydraulic fluid from the power source has stopped, the brake trigger signal causes the hydraulic brake to move from the non-braking position to the braking position, and when the trigger mechanism detects that the flow of hydraulic fluid from the power source has been abruptly reduced but not stopped, the brake trigger signal causes the hydraulic brake to remain in the non-braking position.
A computer-implemented method for preparing an image for a moving web exposure machine, said machine being configured to project, from one or more digital files , a succession of images following one another on a web traveling in a travel direction (DD) of the machine , wherein an overlapping zone is provided on the exposed web between the image n +1 (I n+1 ) and the image n (I n ) projected just before, characterized in that fiducial marks are added to the image n (I n ) close to its two upstream corners and are used to position the image n+1 (I n+1 ).