mhurhangee/patent-ind-claim-en huggingface dataset:
A noseroller assembly for a conveyor belt , comprising: a first bearing module having an upper surface, a first side edge, a second side edge, a rounded front edge, a rear edge, a bottom and an opening for receiving a bearing; a first bearing mounted in the opening of the first bearing module ; a second bearing module adjacent the first bearing module having an upper surface, a first side edge adjacent the second side edge of the first bearing module , a second side edge, a rounded front edge, a rear edge, a bottom and an opening for receiving a bearing; a second bearing mounted in the opening of the second module ; and a connector for connecting the first bearing module and the second bearing module so that the rounded front edges align with each other; wherein the first bearing protrudes past the rounded front edge of the first bearing module ; wherein the second bearing is offset from the first bearing ; characterized in that the opening of the first bearing module is located in the upper surface of said first bearing module, wherein the opening of the second bearing module is located in the upper surface of said second bearing module; wherein the second bearing is recessed from the rounded front edge. a first bearing module having an upper surface, a first side edge, a second side edge, a rounded front edge, a rear edge, a bottom and an opening for receiving a bearing; a first bearing mounted in the opening of the first bearing module ; a second bearing module adjacent the first bearing module having an upper surface, a first side edge adjacent the second side edge of the first bearing module , a second side edge, a rounded front edge, a rear edge, a bottom and an opening for receiving a bearing; a second bearing mounted in the opening of the second module ; and a connector for connecting the first bearing module and the second bearing module so that the rounded front edges align with each other; wherein the first bearing protrudes past the rounded front edge of the first bearing module ; wherein the second bearing is offset from the first bearing ; characterized in that the opening of the first bearing module is located in the upper surface of said first bearing module, wherein the opening of the second bearing module is located in the upper surface of said second bearing module; wherein the second bearing is recessed from the rounded front edge.
A connector comprising: a connector housing , a latch stop mechanism adjoining the connector housing , and a latch adjoining the connector housing , wherein the latch is operable to selectively secure the connector with a second connector in a connected position, and wherein the latch stop mechanism is operable to selectively limit movement of the latch; the latch stop mechanism comprising a proximal hinge , a distal hinge , a proximal section between the proximal hinge and the distal hinge , a distal section situated on a side of the distal hinge opposite the proximal section , and a latch stop disposed on the distal section ; the latch stop comprising a latch stop arm disposed on the distal section of the latch stop mechanism , said arm having a latch stop surface ; and the latch comprising a latch stop contact surface whereby when the latch stop contact surface contacts the latch stop surface , movement of the latch is limited, characterised in that the connector further comprises a latch stop lock disposed on the latch stop arm and having a locking surface to lock the latch stop surface into place; and a catch surface on the latch to secure the locking surface of the latch stop lock .
Hubcap for a wheel with a floating seat for a tyre, the wheel being formed by the assembly of a rigid wheel base and two flexible rim lateral parts comprising a tyre seat provided with a flange , said hubcap comprising: • a central edge situated at a radius R 1 and comprising fixing elements for securing to the wheel, • an exterior periphery inscribed on a circle of radius R 2 , characterized in that the exterior periphery is arranged so as to be able to collaborate with a functional clearance "J" with respect to a rim lateral part and in that : • the exterior periphery comprises a plurality of exterior segments forming arcs of circles contained on a circle circumscribed radially to the outside of the central edge , said exterior segments have a shape of revolution capable, in the mounted position, of being almost parallel to the radially interior face of said rim lateral part axially on the outside, facing the flange , the exterior segments are radially displaceable, • the exterior segments are connected to the central edge by at least one deformable arm , • the exterior segments are extended axially inwards by deformable tabs , the tabs comprising fixing elements for securing to the rigid part of the wheel, and in that said central edge and said exterior periphery are in accordance with at least one of the following two arrangements: • the exterior periphery is axially distant from the closest of the fixing elements for securing to the wheel by a value exceeding 10% of the radius R 2 , • the circle of radius R 1 represents at most 90% of radius R 2 . • a central edge situated at a radius R 1 and comprising fixing elements for securing to the wheel, • an exterior periphery inscribed on a circle of radius R 2 , characterized in that the exterior periphery is arranged so as to be able to collaborate with a functional clearance "J" with respect to a rim lateral part and in that : • the exterior periphery comprises a plurality of exterior segments forming arcs of circles contained on a circle circumscribed radially to the outside of the central edge , said exterior segments have a shape of revolution capable, in the mounted position, of being almost parallel to the radially interior face of said rim lateral part axially on the outside, facing the flange , the exterior segments are radially displaceable, • the exterior segments are connected to the central edge by at least one deformable arm , • the exterior segments are extended axially inwards by deformable tabs , the tabs comprising fixing elements for securing to the rigid part of the wheel, • the exterior periphery is axially distant from the closest of the fixing elements for securing to the wheel by a value exceeding 10% of the radius R 2 , • the circle of radius R 1 represents at most 90% of radius R 2 .
A nonwoven extending in a machine direction (MD), which is the direction of production of the nonwoven, and a perpendicular cross-machine direction (CD), the nonwoven comprising fibers bonded by a pattern of thermal bonds , wherein the thermal bonds comprise: - larger bonds having an individual area of at least 1.0 mm 2 , in particular at least 1.5 mm 2 ; and - smaller bonds having an individual area of less than 1.0 mm 2 , in particular from 0.10 mm 2 to 1.0 mm 2 ; wherein the thermal bonds are disposed in rows generally aligned with the cross-machine direction (CD), wherein the rows have a pitch angle (P) ranging from 0 to 15 degrees relative to the cross-machine direction; wherein the smaller bonds are disposed between the rows of larger bonds; and wherein the ratio of the number of smaller bonds to the number of larger bonds is at least 1.2. - larger bonds having an individual area of at least 1.0 mm 2 , in particular at least 1.5 mm 2 ; and - smaller bonds having an individual area of less than 1.0 mm 2 , in particular from 0.10 mm 2 to 1.0 mm 2 ;
A method comprising: generating, by an access point , one or more parameters defining a new special subframe configuration associated with downlink communications, wherein the new special subframe configuration is generated in addition to one or more other special subframe configurations, and wherein the new special subframe configuration comprises information indicating a plurality of downlink symbols that exceed a number of downlink symbols of at least one of the other special subframe configurations for reducing overlap between a first system and a second system, thereby minimizing an interference between the first system and the second system; and providing, by the access point, a message to one or more communication devices to enable at least a first subset of the communication devices to detect the new special subframe configuration, wherein prior to providing the message, the method further comprises: designating, by the access point, at least a subset of values of the one or more generated parameters as one or more spare values reserved for future usage of one or more extension special subframe configurations, and including, by the access point, an indication of the new special subframe configuration in the one or more generated parameters comprised in the message. generating, by an access point , one or more parameters defining a new special subframe configuration associated with downlink communications, wherein the new special subframe configuration is generated in addition to one or more other special subframe configurations, and wherein the new special subframe configuration comprises information indicating a plurality of downlink symbols that exceed a number of downlink symbols of at least one of the other special subframe configurations for reducing overlap between a first system and a second system, thereby minimizing an interference between the first system and the second system; and providing, by the access point, a message to one or more communication devices to enable at least a first subset of the communication devices to detect the new special subframe configuration, wherein prior to providing the message, the method further comprises: designating, by the access point, at least a subset of values of the one or more generated parameters as one or more spare values reserved for future usage of one or more extension special subframe configurations, and including, by the access point, an indication of the new special subframe configuration in the one or more generated parameters comprised in the message. designating, by the access point, at least a subset of values of the one or more generated parameters as one or more spare values reserved for future usage of one or more extension special subframe configurations, and including, by the access point, an indication of the new special subframe configuration in the one or more generated parameters comprised in the message.
A X-ray fluoroscopic imaging system for fluoroscopic imaging subjects in at least two inspection channels, characterized by comprising: an electron accelerator, a shielding and collimating device, at least two detector arrays, wherein, the electron accelerator includes an electron emitting unit, an electron accelerating unit and a target; wherein, the shielding and collimating device includes a shielding structure and at least two collimators respectively corresponding to the at least two detector arrays; wherein, each of the at least two detector arrays, the collimator corresponding to this detector array and a target point (O) targeted by the electric beam are located in one plane; characterized in that : each of the at least two collimators is a slit with a thickness, so as to extract a planar fan-shaped X-ray beam with a uniform intensity distribution; wherein, each of the detector arrays is arranged in an arc shape which takes the target point as the arc center; and wherein, each of the extracted X-ray beams has a downward field angle of 15° (-15°) and a upward field angle of 75° (+75°) with respect to the horizontal plane (0°). an electron accelerator, a shielding and collimating device, at least two detector arrays, wherein, the electron accelerator includes an electron emitting unit, an electron accelerating unit and a target; wherein, the shielding and collimating device includes a shielding structure and at least two collimators respectively corresponding to the at least two detector arrays; wherein, each of the at least two detector arrays, the collimator corresponding to this detector array and a target point (O) targeted by the electric beam are located in one plane; characterized in that : each of the at least two collimators is a slit with a thickness, so as to extract a planar fan-shaped X-ray beam with a uniform intensity distribution; wherein, each of the detector arrays is arranged in an arc shape which takes the target point as the arc center; and wherein, each of the extracted X-ray beams has a downward field angle of 15° (-15°) and a upward field angle of 75° (+75°) with respect to the horizontal plane (0°).
A clock generation circuit , comprising a first clock source , a second clock source , and a logic gate circuit , wherein the first clock source is coupled to the logic gate circuit and the second clock source is coupled to the logic gate circuit , the first clock source comprises a first oscillation circuit and a first direct current bias circuit , the first oscillation circuit is coupled to the first direct current bias circuit , and the first direct current bias circuit is coupled to the logic gate circuit , wherein the first oscillation circuit is configured to generate a first clock signal; the first direct current bias circuit is configured to: remove a direct current component from the first clock signal, and superimpose a first direct current voltage on the first clock signal obtained after the direct current component is removed, to generate a second clock signal, wherein a voltage value of the first direct current voltage is greater than a high-level decision threshold of the logic gate circuit , and the voltage value of the first direct current voltage is less than a difference between a low-level decision threshold of the logic gate circuit and a low-level voltage value of the first clock signal; the second clock source is configured to generate a third clock signal, wherein an absolute value of a difference between a frequency of the third clock signal and a frequency of the second clock signal is less than a first preset value; and the logic gate circuit is configured to: receive the second clock signal and the third clock signal, and perform an AND logical operation on the second clock signal and the third clock signal to generate a fourth clock signal.
A preform for a TiAl-based turbine wheel, the preform comprising a TiAl-based alloy consisting of: 28.0 mass% ≤ Al ≤ 35.0 mass%; 1.0 mass% ≤ Nb+Mo+W+Ta ≤ 15.0 mass%; 0.1 mass% ≤ Cr+Mn+V ≤ 5.0 mass%; 0.1 mass% ≤ Si ≤ 1.0 mass%; C ≤ 0.2 mass%; and B ≤ 0.200 mass%, with a remainder being Ti and unavoidable impurities, wherein the preform includes a plurality of turbine blade-corresponding portions, and each of the turbine blade-corresponding portions has a lamellar structure with an average lamellar colony diameter of 100 μm or more and 500 μm or less, wherein each of the turbine blade-corresponding portions has a tip thickness of 0.5 mm or more and 2.0 mm or less. 28.0 mass% ≤ Al ≤ 35.0 mass%; 1.0 mass% ≤ Nb+Mo+W+Ta ≤ 15.0 mass%; 0.1 mass% ≤ Cr+Mn+V ≤ 5.0 mass%; 0.1 mass% ≤ Si ≤ 1.0 mass%; C ≤ 0.2 mass%; and B ≤ 0.200 mass%, with a remainder being Ti and unavoidable impurities, wherein the preform includes a plurality of turbine blade-corresponding portions, and each of the turbine blade-corresponding portions has a lamellar structure with an average lamellar colony diameter of 100 μm or more and 500 μm or less, wherein each of the turbine blade-corresponding portions has a tip thickness of 0.5 mm or more and 2.0 mm or less.
A method of making a load-bearing traction member, comprising heating a composition comprising a thermoplastic polyurethane, and a compound comprising a plurality of groups having the formula wherein R 1 and R 2 are each groups in a polymer backbone or together form a group having the formula =NR 4 , wherein R 3 and R 4 each independently represents an organic group; and applying the composition to at least one tension member, and solidifying the composition to form a polymer jacket around the at least one tension member.
A key fob , comprising an electronic communication circuit , a processor , and a battery configured to power the electronic communication circuit and the processor ; wherein the key fob further comprises: a communication module comprising program code configured to control the processor , such that the processor uses the electronic communication circuit to exchange data with an external electronic communication device ; an access control module comprising program code configured to control the processor , such that the processor uses the electronic communication circuit to exchange access control data with an external electronic access control device ; a user activatable operating element ; and a control module comprising program code configured to control the processor , such that the processor activates the communication module , for exchanging data with the external electronic communication device , or the access control module , for exchanging access control data with the external electronic access control device , depending on a duration of actuation of the operating element by a user, wherein the processor comprises a hardware secure element or the processor is configured as a hardware secure element , and the hardware secure element has stored therein a cryptographic key , a unique chip identifier , and an authentication module which comprises program code configured to control the processor , such that the processor generates an authentication message by encrypting the unique chip identifier using the cryptographic key . a communication module comprising program code configured to control the processor , such that the processor uses the electronic communication circuit to exchange data with an external electronic communication device ; an access control module comprising program code configured to control the processor , such that the processor uses the electronic communication circuit to exchange access control data with an external electronic access control device ; a user activatable operating element ; and a control module comprising program code configured to control the processor , such that the processor activates the communication module , for exchanging data with the external electronic communication device , or the access control module , for exchanging access control data with the external electronic access control device , depending on a duration of actuation of the operating element by a user, wherein the processor comprises a hardware secure element or the processor is configured as a hardware secure element , and the hardware secure element has stored therein a cryptographic key , a unique chip identifier , and an authentication module which comprises program code configured to control the processor , such that the processor generates an authentication message by encrypting the unique chip identifier using the cryptographic key .
A dental abutment extending from an apical end to a coronal end along a longitudinal axis, the dental abutment comprising: a retention element with a base oriented towards the apical end of the dental abutment and a shoulder oriented towards the coronal end of the dental abutment, the shoulder oriented at an angle of between 12.5° and 20° relative to a plane that is perpendicular to the longitudinal axis such that a perimeter of the retention element increases with increasing distance from the coronal end of the dental abutment through the region of the shoulder; a post extending from the apical end of the dental abutment to the base of the retention element; and a head extending from the coronal end of the dental abutment to the shoulder of the retention element, the head having a cone angle between 2.5° and 3.5°, wherein the perimeter taken in the plane perpendicular to the longitudinal axis increases monotonically from the coronal end to a margin defined between the base and the shoulder, wherein the head includes a neck , an anti-rotation portion , and a bevel at the coronal end of the dental abutment . a retention element with a base oriented towards the apical end of the dental abutment and a shoulder oriented towards the coronal end of the dental abutment, the shoulder oriented at an angle of between 12.5° and 20° relative to a plane that is perpendicular to the longitudinal axis such that a perimeter of the retention element increases with increasing distance from the coronal end of the dental abutment through the region of the shoulder; a post extending from the apical end of the dental abutment to the base of the retention element; and a head extending from the coronal end of the dental abutment to the shoulder of the retention element, the head having a cone angle between 2.5° and 3.5°, wherein the perimeter taken in the plane perpendicular to the longitudinal axis increases monotonically from the coronal end to a margin defined between the base and the shoulder, wherein the head includes a neck , an anti-rotation portion , and a bevel at the coronal end of the dental abutment .
A method of monitoring a parameter of an electrical network , the method comprising: using one or a plurality of sensors in the electrical network, measuring a value of a parameter of the electrical network during each sampling period within a selected time section; using a processor, during each iteration of a plurality of iterations of a sliding window algorithm, wherein within each of the iterations a starting time of a sliding window of the sliding window algorithm within the selected time section is incremented by a selected increment, a duration of the sliding window in each iteration of the iterations being different from the duration of sliding windows in other iterations of the plurality of iterations of the sliding window algorithm, calculating an average of the measured parameter values over the duration of the sliding window for each of the starting times; using the processor, calculating a representative value of the calculated averages of the parameter for each iteration; and using the processor, issuing an alert if the representative value indicates a need for an alert. using one or a plurality of sensors in the electrical network, measuring a value of a parameter of the electrical network during each sampling period within a selected time section; using a processor, during each iteration of a plurality of iterations of a sliding window algorithm, wherein within each of the iterations a starting time of a sliding window of the sliding window algorithm within the selected time section is incremented by a selected increment, a duration of the sliding window in each iteration of the iterations being different from the duration of sliding windows in other iterations of the plurality of iterations of the sliding window algorithm, calculating an average of the measured parameter values over the duration of the sliding window for each of the starting times; using the processor, calculating a representative value of the calculated averages of the parameter for each iteration; and using the processor, issuing an alert if the representative value indicates a need for an alert.