mhurhangee/ep-ind-claims huggingface dataset:
A Global Navigation Satellite System (GNSS) receiver comprising: at least one processor, wherein the processor is configured to: perform integrity monitoring in a solution separation based integrity monitoring module, wherein the solution separation based integrity monitoring module is characterised by being further configured to: determine a weighted false alarm probability allocation for each of more than one sub-solution in a solution separation based integrity monitoring module, wherein for each respective sub-solution of the more than one sub-solution, the weighted false alarm probability allocation is based on pre-determined values for missed detection probability and fault probability for the respective sub-solution, wherein each respective sub-solution is created by excluding a set of potentially faulty satellites from a full solution, wherein a fault mode occurs when there is a faulty satellite in the excluded set of potentially faulty satellite, wherein each respective sub-solution's missed detection probability is probability that detection of associated fault mode occurrence in a sub-solution was missed, and wherein each respective sub-solution's fault probability is probability that the fault mode occurs; compute a weighted protection level based on the weighted false alarm probability allocation for each respective sub-solution. wherein for each respective sub-solution of the more than one sub-solution, the weighted false alarm probability allocation is based on pre-determined values for missed detection probability and fault probability for the respective sub-solution, wherein each respective sub-solution is created by excluding a set of potentially faulty satellites from a full solution, wherein a fault mode occurs when there is a faulty satellite in the excluded set of potentially faulty satellite, wherein each respective sub-solution's missed detection probability is probability that detection of associated fault mode occurrence in a sub-solution was missed, and wherein each respective sub-solution's fault probability is probability that the fault mode occurs; compute a weighted protection level based on the weighted false alarm probability allocation for each respective sub-solution.
A cleaning pad comprising: a liquid pervious hydrophobic floor sheet having an inwardly facing surface and an outwardly facing surface opposed thereto, an absorbent core juxtaposed with said inwardly facing surface of said floor sheet and comprising absorbent gelling material AGM, and characterized by further comprising a smoothing strip joined to said outwardly facing surface of said floor sheet, said smoothing strip having a width of 13 mm to 100 mm, said smoothing strip comprising a cellulose fiber lamina and a synthetic fiber lamina joined in a laminate, said cellulose fiber lamina facing outwardly from said cleaning pad and said synthetic fiber lamina being in contacting relationship with said floor sheet. a liquid pervious hydrophobic floor sheet having an inwardly facing surface and an outwardly facing surface opposed thereto, an absorbent core juxtaposed with said inwardly facing surface of said floor sheet and comprising absorbent gelling material AGM, and characterized by further comprising a smoothing strip joined to said outwardly facing surface of said floor sheet, said smoothing strip having a width of 13 mm to 100 mm, said smoothing strip comprising a cellulose fiber lamina and a synthetic fiber lamina joined in a laminate, said cellulose fiber lamina facing outwardly from said cleaning pad and said synthetic fiber lamina being in contacting relationship with said floor sheet.
A structural stainless steel sheet having a composition which contains by mass% 0.01 to 0.03% C, 0.01 to 0.03% N, 0.10 to 0.40% Si, 1.5 to 2.5% Mn, 0.04% or less P, 0.02% or less S, 0.05 to 0.15% Al, 10 to 13% Cr, 0.5 to 1.0% Ni, 4× (C+N) or more and 0.3% or less Ti (C, N indicating contents (mass%) of C and N), and Fe and unavoidable impurities as a balance, V, Ca and O in the unavoidable impurities being regulated to 0.05% or less V, 0.0030% or less Ca and 0.0080% or less O, wherein the steel sheet further optionally contains 1.0% or less Cu by mass% and/or 1.0% or less Mo by mass%, and/or 0.005% or less B, wherein an F value and an FFV value expressed by following formulae satisfy a condition that F value≤11 and FFV value≤9.0. F value = Cr + 2 × Si + 4 × Ti − 2 × Ni − Mn − 30 × C + N FFV value = Cr + 3 × Si + 16 × Ti + Mo + 2 × Al − 2 × Mn − 4 × Ni + Cu − 40 × C + N + 20 × V In the formulae, the respective element symbols are contents of the elements (mass%).
Apparatus comprising a working chamber through which containers are conveyed in a longitudinal direction of the working chamber from an inlet side to an outlet side comprising - at least one station in the working chamber which executes a working step on the containers, - an external line configured as a gas distribution pipe extending through the working chamber having a plurality of openings for the introduction of a sterile fluid into the working chamber in order to create a sterile atmosphere in the working chamber, - an internal line configured as a spray pipe extending into the external line having a plurality of openings for spraying a cleaning medium, - an annular chamber having a closed end extends in the longitudinal direction between the internal and the external line, characterised in further comprising - an inlet for supplying the sterile fluid into the annular chamber which is configured to predefine a flow direction in the annular chamber for the sterile fluid starting from the inlet towards the closed end, and - that the cross-sectional area of the annular chamber varies in the longitudinal direction, at least in sections. - at least one station in the working chamber which executes a working step on the containers, - an external line configured as a gas distribution pipe extending through the working chamber having a plurality of openings for the introduction of a sterile fluid into the working chamber in order to create a sterile atmosphere in the working chamber, - an internal line configured as a spray pipe extending into the external line having a plurality of openings for spraying a cleaning medium, - an annular chamber having a closed end extends in the longitudinal direction between the internal and the external line, characterised in further comprising - an inlet for supplying the sterile fluid into the annular chamber which is configured to predefine a flow direction in the annular chamber for the sterile fluid starting from the inlet towards the closed end, and - an inlet for supplying the sterile fluid into the annular chamber which is configured to predefine a flow direction in the annular chamber for the sterile fluid starting from the inlet towards the closed end, and - that the cross-sectional area of the annular chamber varies in the longitudinal direction, at least in sections.
A method for isolating a multi-layer passivation system for a medical implant, wherein the passivation system comprises a passivation with at least one electrically active intermediate layer (20, 40); at least one round-shaped, rectangular-shaped, elliptic or cone-shaped opening created in a predetermined way in the passivation, the method comprising arranging an isolating wall along the circumference of the opening, wherein the isolating wall is coated covering the entire side wall face of the opening in the passivation, and wherein the isolating wall isolates in an electrical and/or fluid-tight and/or gas-tight manner the at least one electrically active intermediate layer (20, 40) of at least one electrode of a flexible or rigid medical implant which is bio-stable, bio-compatible and encapsulated in an electrically isolating manner as a bottom face of the opening. a passivation with at least one electrically active intermediate layer (20, 40); at least one round-shaped, rectangular-shaped, elliptic or cone-shaped opening created in a predetermined way in the passivation, the method comprising arranging an isolating wall along the circumference of the opening, wherein the isolating wall is coated covering the entire side wall face of the opening in the passivation, and wherein the isolating wall isolates in an electrical and/or fluid-tight and/or gas-tight manner the at least one electrically active intermediate layer (20, 40) of at least one electrode of a flexible or rigid medical implant which is bio-stable, bio-compatible and encapsulated in an electrically isolating manner as a bottom face of the opening.
A method for wireless communication at a receiving device, comprising: receiving a first physical layer header of a first wireless local area network, WLAN, protocol data unit over a shared radio frequency spectrum band, the first physical layer header comprising at least a first basic service set, BSS, identifier and a first device association identifier, AID; comparing a second BSS identifier to the first BSS identifier, the second BSS identifier identifying a BSS used by the receiving device; comparing a second device AID of the receiving device to the first device AID; and performing, based at least in part on the comparisons, an intra-frame operation selected from a group consisting of: a power saving operation and a receive filtering operation. receiving a first physical layer header of a first wireless local area network, WLAN, protocol data unit over a shared radio frequency spectrum band, the first physical layer header comprising at least a first basic service set, BSS, identifier and a first device association identifier, AID; comparing a second BSS identifier to the first BSS identifier, the second BSS identifier identifying a BSS used by the receiving device; comparing a second device AID of the receiving device to the first device AID; and performing, based at least in part on the comparisons, an intra-frame operation selected from a group consisting of: a power saving operation and a receive filtering operation. a power saving operation and a receive filtering operation.
A brushless motor comprising: a rotor assembly comprising a shaft, an impeller, a bearing assembly (38,40) and a rotor core; a stator assembly (16,18,20,22,50), wherein the stator assembly comprises a bobbin (54,56) and a stator core, wherein the bobbin comprises first and second arms, the first and second arms are spaced apart to define a recess; a frame comprising an outer portion and an inner portion radially inward of the outer portion, the inner portion supporting the rotor assembly and the stator assembly; and a strut (94,96,98,100) extending between the outer portion and the inner portion, wherein the strut extends at least partially into the recess formed in the bobbin; and wherein the recess defines a space for receiving windings of the stator assembly and a space for receiving the strut (94,96,98,100). a rotor assembly comprising a shaft, an impeller, a bearing assembly (38,40) and a rotor core; a stator assembly (16,18,20,22,50), wherein the stator assembly comprises a bobbin (54,56) and a stator core, wherein the bobbin comprises first and second arms, the first and second arms are spaced apart to define a recess; a frame comprising an outer portion and an inner portion radially inward of the outer portion, the inner portion supporting the rotor assembly and the stator assembly; and a strut (94,96,98,100) extending between the outer portion and the inner portion, wherein the strut extends at least partially into the recess formed in the bobbin; and wherein the recess defines a space for receiving windings of the stator assembly and a space for receiving the strut (94,96,98,100).
A dental composition for use in a dental impressioning process, the dental composition comprising • at least one polydimethylsiloxane with at least 2 aliphatically unsaturated groups as component in an amount from 20 wt.-% to 60 wt.-%, • at least one SiH compound with ≥ 2 SiH-groups per molecule as component in an amount from 0.1 wt.-% to 15 wt.-%, • a catalyst as component being able to catalyse the reaction between components and in an amount from 0.001 wt.-% to 0.1 wt.-%, • glass beads as component with a particle size (d50/μm) equal or below 60 μm in an amount from 0.5 wt.-% to 70 wt.-%, wt.-% with respect to the whole composition. • at least one polydimethylsiloxane with at least 2 aliphatically unsaturated groups as component in an amount from 20 wt.-% to 60 wt.-%, • at least one SiH compound with ≥ 2 SiH-groups per molecule as component in an amount from 0.1 wt.-% to 15 wt.-%, • a catalyst as component being able to catalyse the reaction between components and in an amount from 0.001 wt.-% to 0.1 wt.-%, • glass beads as component with a particle size (d50/μm) equal or below 60 μm in an amount from 0.5 wt.-% to 70 wt.-%,
Lid for a container, with a lid body comprising a handling body, which has a lid outer edge, and an eating utensil part, which is integrally connected with the handling body via a rectilinearly extending eating utensil part hinge in such a way that the eating utensil part can be folded out relative to the handling body about a eating utensil part hinge pivot axis of the eating utensil part hinge from a not-folded-out, non-use setting not intended for eating into an eating use setting which is for eating a content of the container and in which the eating utensil part extends in the direction of its eating utensil part longitudinal axis transversely or perpendicularly away from the eating utensil part hinge beyond the lid outer edge of the handling body, wherein the handling body comprises a plurality of handling parts (27.1, 27.2) of which a first handling part (27.1) and a second handling part (27.2) are integrally connected together via a rectilinearly extending first lid hinge (50.1) in such a way that the second handling part (27.2) is foldable relative to the first handling part (27.1) about at least one first lid hinge pivot axis (51.1) of the first lid hinge (50.1) from a basic setting (54.1) not intended for eating into a first handling setting (55.1) in which the handling parts (27.1, 27.2) form a handle for manual operation of the eating utensil part, which is folded out into its eating use setting, for eating a content of the container, wherein the eating utensil part hinge has a hinge spacing from the lid outer edge of the handling body, wherein a eating utensil part engagement-behind support body of the first handling part (27.1) is formed between the eating utensil part hinge or the eating utensil part hinge pivot axis and the lid outer edge of the handling body and wherein the eating utensil part engagement-behind support body is opposite the eating utensil part in the eating use setting on a first eating utensil part side (34.1) of the eating utensil part so that for acceptance of use forces acting in a first force direction (39.1) the eating utensil part is or can be directly or indirectly supported on the eating utensil part engagement-behind support body, characterised in that at least one securing means for securing the handling parts (27.1, 27.2), which are folded together to form a handle, against unintended folding back is provided, and that the second handling part (27.2) is formed with a first eating utensil part engagement-over support body (65.1) which in the first handling setting (55.1) is opposite the eating utensil part in the eating use setting on a second eating utensil part side (34.2), which faces away from the first eating utensil part side (34.1), of the eating utensil part so that for acceptance of use forces acting in a second force direction (39.2) opposite the first force direction (39.1) the eating utensil part is or can be directly or indirectly supported on the first eating utensil part engagement-over support body (65.1).
A physical object processing system comprising: - a process station to perform processing steps to at least one physical object; - a transport facility to transport the at least one physical object along the process station; - an optical imaging system to map an optical image of the at least one physical object onto an image sensor, the image sensor being configured to acquire a digital image from said optical image,; - data process facilities to process the digital image and to control the process station in accordance therewith; the optical imaging system being configured to map the optical image of the at least one physical object onto the image sensor at an at least substantially fixed position during a time-interval for acquiring the digital image, the optical imaging system comprising a rotatable mirror, a mirror rotation actuator to rotate the rotatable mirror and an actuator controller that controls the mirror rotation actuator in accordance with a speed with which the object moves, characterized in that the physical object processing system further comprises an object detection unit (50, 70) to generate an output signal (C50, C70) indicative for a displacement speed of the optical image of the at least one physical object mapped onto the image sensor and a feedback unit using said output signal to enable the actuator controller to minimize said displacement speed. - a process station to perform processing steps to at least one physical object; - a transport facility to transport the at least one physical object along the process station; - an optical imaging system to map an optical image of the at least one physical object onto an image sensor, the image sensor being configured to acquire a digital image from said optical image,; - data process facilities to process the digital image and to control the process station in accordance therewith;
An imaging apparatus comprising: a sensor unit having a light receiving unit provided with a plurality of pixels each adapted to photoelectrically convert received light to a pixel voltage signal level to generate an electrical signal after photoelectric conversion, and capable of reading the electrical signal generated by the light receiving unit as image information; a control unit configured to control an output mode of the electrical signal output by each pixel, on a pixel-by-pixel basis, output the electrical signal corresponding to a specified display pattern, and set the pixels to a pixel voltage reset level after photoelectric conversion; a signal processing unit configured to perform signal processing on the electrical signal output from the sensor unit; and a transmission unit configured to transmit a processed signal processed by the signal processing unit to outside, characterized in that the specified display pattern is a test pattern, and, when the electrical signal corresponding to the test pattern is to be output, the control unit is configured to perform pixel signal level reading operation and reset level reading operation alternately for each row and column of the plurality of pixels provided in the light receiving unit. a sensor unit having a light receiving unit provided with a plurality of pixels each adapted to photoelectrically convert received light to a pixel voltage signal level to generate an electrical signal after photoelectric conversion, and capable of reading the electrical signal generated by the light receiving unit as image information; a control unit configured to control an output mode of the electrical signal output by each pixel, on a pixel-by-pixel basis, output the electrical signal corresponding to a specified display pattern, and set the pixels to a pixel voltage reset level after photoelectric conversion; a signal processing unit configured to perform signal processing on the electrical signal output from the sensor unit; and a transmission unit configured to transmit a processed signal processed by the signal processing unit to outside, characterized in that the specified display pattern is a test pattern, and, when the electrical signal corresponding to the test pattern is to be output, the control unit is configured to perform pixel signal level reading operation and reset level reading operation alternately for each row and column of the plurality of pixels provided in the light receiving unit.
A shipping wedge for use with a surgical instrument having a body portion comprising: a base; a blocking member depending from the base and engagable with a movable operative member of a surgical instrument; flexible arms (92, 94, 96, 98) projecting from the base and being shaped to cooperate with the body portion of the surgical instrument; and characterised by a locking member depending from the base and engageable with a lockout mechanism of the surgical instrument such that the shipping wedge is locked to the body portion when the lockout mechanism is in a first locked position and is unlocked for removal from the body portion when the lockout mechansim is in the second unlocked position. a base; a blocking member depending from the base and engagable with a movable operative member of a surgical instrument; flexible arms (92, 94, 96, 98) projecting from the base and being shaped to cooperate with the body portion of the surgical instrument; and characterised by a locking member depending from the base and engageable with a lockout mechanism of the surgical instrument such that the shipping wedge is locked to the body portion when the lockout mechanism is in a first locked position and is unlocked for removal from the body portion when the lockout mechansim is in the second unlocked position.
A method for controlling the angular position of the steering wheel of a vehicle with respect to the field of an interior camera disposed between the steering wheel and the instrument cluster of said vehicle or between the steering wheel and the dashboard of said vehicle, said vehicle comprising a controllable steering system, said method being characterized in that it comprises steps consisting in: - before the said vehicle is started, determining if said steering wheel is at least partially concealing the field of said camera, from the angular position of said steering wheel; - if the field of said camera is at least partially concealed by said steering wheel, actuating said controllable steering system so as to bring said steering wheel into an angular position in which said steering wheel does not conceal the field of said camera. - before the said vehicle is started, determining if said steering wheel is at least partially concealing the field of said camera, from the angular position of said steering wheel; - if the field of said camera is at least partially concealed by said steering wheel, actuating said controllable steering system so as to bring said steering wheel into an angular position in which said steering wheel does not conceal the field of said camera.