mhurhangee/patent-ind-claim-en huggingface dataset:
A data processing method for a wireless backhaul line network, comprising: Determining (S101), by a controller, a data forwarding path used for data packet transmission between user equipment and a core network; and Sending (S102), by the controller, a data packet filtering rule and configuration information carrying the data forwarding path to a first node in the data forwarding path, wherein the filtering rule is used to match configuration information corresponding to a data packet of the first node, the configuration information comprises routing information corresponding to each node in the data forwarding path, the routing information corresponding to the any node in the data forwarding path comprises a queue identifier allocated by the controller to the data packet, and the queue identifier is used to identify a transmission queue to which the data packet belongs; wherein when the data forwarding path is used for the first time to forward the data packet or the data forwarding path changes, the routing information corresponding to the any node in the data forwarding path further comprises: an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node. Determining (S101), by a controller, a data forwarding path used for data packet transmission between user equipment and a core network; and Sending (S102), by the controller, a data packet filtering rule and configuration information carrying the data forwarding path to a first node in the data forwarding path, wherein the filtering rule is used to match configuration information corresponding to a data packet of the first node, the configuration information comprises routing information corresponding to each node in the data forwarding path, the routing information corresponding to the any node in the data forwarding path comprises a queue identifier allocated by the controller to the data packet, and the queue identifier is used to identify a transmission queue to which the data packet belongs; wherein when the data forwarding path is used for the first time to forward the data packet or the data forwarding path changes, the routing information corresponding to the any node in the data forwarding path further comprises: an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node. an identifier of a node next to the any node and scheduling information of the transmission queue on the any node; wherein the scheduling information of the transmission queue on the any node comprises priority information allocated by the controller to the transmission queue on the any node.
A door drive for arrangement on or in connection with a door system, with which at least one leaf element of the door system can be moved, having a motor unit with a housing , in which a stator is received in a stationary manner and wherein a rotor is arranged in the housing so as to be rotationally movable, wherein the stator has an annular basic structure, and the rotor is received within the annular shape so as to be rotationally movable via an output shaft , wherein the output shaft can be brought into operative connection in a driving manner with the leaf element, characterised in that the housing is formed from interconnected housing halves , wherein the first housing half and/or the second housing half has an internal receiving section into which the stator is inserted, wherein the stator is arranged in a retained manner with first fastening elements inside of a first housing half and wherein second fastening elements are provided, with which the second housing half is arranged on the first housing half , and wherein an at least partially circumferential heat transfer gap is formed between an outer side of the stator and an inner side of the receiving section in order to serve as such for heat transfer from the stator into the at least one or into both housing halves .
A Li-ion secondary battery comprising: a positive electrode comprising a positive electrode active material, a negative electrode comprising a negative electrode active material, and an aqueous electrolyte, wherein the negative electrode active material comprises a compound whose lithium ion insertion/extraction potential is from 1 V (vs. Li/Li+) to 3 V (vs. Li/Li+) with respect to a potential based on metal lithium, the compound is at least one selected from a titanium oxide or a titanium-containing oxide, the negative electrode comprises an additive resin comprising a hydroxyl group unit and a first unit, the first unit consists of at least one of a butyral unit and an acetal unit, and a content ratio of a content of the first unit of the additive resin to a content of the hydroxyl group unit of the additive resin is in a range of 1.2 to 18. wherein the negative electrode active material comprises a compound whose lithium ion insertion/extraction potential is from 1 V (vs. Li/Li+) to 3 V (vs. Li/Li+) with respect to a potential based on metal lithium, the compound is at least one selected from a titanium oxide or a titanium-containing oxide, the negative electrode comprises an additive resin comprising a hydroxyl group unit and a first unit, the first unit consists of at least one of a butyral unit and an acetal unit, and a content ratio of a content of the first unit of the additive resin to a content of the hydroxyl group unit of the additive resin is in a range of 1.2 to 18.
A substrate processing apparatus , comprising: a chamber body defining a process volume , wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body ; a first electrode coupled to the door , the first electrode configured to support a substrate thereon; a second electrode coupled to the chamber body , the second electrode at least partially defining the process volume ; a first plurality of fluid ports formed in a sidewall of the chamber body adjacent the process volume ; and a second plurality of fluid ports formed in the sidewall of the chamber body adjacent the process volume opposite the first plurality of fluid ports . a chamber body defining a process volume , wherein a major axis of the process volume is oriented vertically and a minor axis of the process volume is oriented horizontally; a moveable door coupled to the chamber body ; a first electrode coupled to the door , the first electrode configured to support a substrate thereon; a second electrode coupled to the chamber body , the second electrode at least partially defining the process volume ; a first plurality of fluid ports formed in a sidewall of the chamber body adjacent the process volume ; and a second plurality of fluid ports formed in the sidewall of the chamber body adjacent the process volume opposite the first plurality of fluid ports .
Preparation method for preparing the division of at least two first-order workpieces (A, B, C) by a panel dividing system , in which the workpieces (A, B, C) can be fed to a dividing device in a feed direction by first and second gripping devices that are movable relative to one another on a working line and can be divided by the latter into second-order workpieces (A1-C5) by common dividing processes along respective dividing lines , the preparation method being carried out by an automatic computing device and comprising at least the following step: a. providing a dividing plan according to which the first-order workpieces (A, B, C) are to be divided into second-order workpieces (A1-C5), characterized in that it further comprises the following steps: c. in the dividing plan : sorting the second-order workpieces (A1-C5) within the relevant first-order workpiece (A, B, C) according to their length when viewed in the feed direction such that the length increases with increasing distance from the working line of the dividing device ; d. creating a plurality of combinations (K1-K6) of two first-order workpieces (A, B, C), the combinations (Ki) differing at least in the assignment of the workpieces (A, B, C) to the first and second gripping device ; e. identifying such combinations (K3) as jointly divisible, if present, in which no dividing line on that workpiece (B) which is assigned to the second gripping device is, when viewed parallel to the feed direction , further away from a dividing line on the other workpiece (A), which is assigned to the first gripping device , than the maximum distance by which the second gripping device can be moved relative to the first gripping device away from the latter. a. providing a dividing plan according to which the first-order workpieces (A, B, C) are to be divided into second-order workpieces (A1-C5), c. in the dividing plan : sorting the second-order workpieces (A1-C5) within the relevant first-order workpiece (A, B, C) according to their length when viewed in the feed direction such that the length increases with increasing distance from the working line of the dividing device ; d. creating a plurality of combinations (K1-K6) of two first-order workpieces (A, B, C), the combinations (Ki) differing at least in the assignment of the workpieces (A, B, C) to the first and second gripping device ; e. identifying such combinations (K3) as jointly divisible, if present, in which no dividing line on that workpiece (B) which is assigned to the second gripping device is, when viewed parallel to the feed direction , further away from a dividing line on the other workpiece (A), which is assigned to the first gripping device , than the maximum distance by which the second gripping device can be moved relative to the first gripping device away from the latter.
A transfer device comprising: - a main conveying unit having a plurality of main conveying bodies that are adapted to rotate or travel in contact with a conveyed object to convey the object in a fixed direction; - a sub conveying unit having a plurality of sub conveying bodies that are adapted to rotate or travel in contact with the conveyed object to carry the object in a direction crossing the conveying direction of the main conveying unit ; and - a lifting and lowering unit having a lifting and lowering mechanism for lifting and lowering at least one of the main conveying unit and the sub conveying unit , and a motor for operating the lifting and lowering mechanism , the lifting and lowering unit are adapted to lifting one of the conveying units to a position above the other conveying unit to convey the object in a desired direction, the main conveying unit and the sub conveying unit being disposed in an identical planar area, wherein a planar position of the motor resides in a planar area overlapping with the main conveying unit and the sub conveying unit , and wherein a position of the motor in a height direction is set such that a part or the whole of the motor is located above a height of a lower end of a rotational track or a traveling track of any one of the conveying bodies of any one of the conveying units in a lowered state, wherein one of the main conveying unit and the sub conveying unit is a roller conveyer device that includes a plurality of rollers disposed in parallel whereas the other conveying unit is a belt conveyer device including a plurality of belts disposed in parallel, wherein the belts composing the belt conveyer device are disposed between the rollers composing the roller conveyer device , wherein a traveling track of each of the belts comprises a conveying passage side on which the conveyed object is placed, and a return side that passes below the conveying passage side, characterized in that a narrow part coming close to the conveying passage side is formed in the return side of at least one of the belts for a predetermined length in the conveying direction of the conveyed object, and in that the motor is disposed at the narrow part . - a main conveying unit having a plurality of main conveying bodies that are adapted to rotate or travel in contact with a conveyed object to convey the object in a fixed direction; - a sub conveying unit having a plurality of sub conveying bodies that are adapted to rotate or travel in contact with the conveyed object to carry the object in a direction crossing the conveying direction of the main conveying unit ; and - a lifting and lowering unit having a lifting and lowering mechanism for lifting and lowering at least one of the main conveying unit and the sub conveying unit , and a motor for operating the lifting and lowering mechanism ,
Fitting for a sliding door or folding sliding door, comprising - a holding element to which the sliding door can be fixed, - a roller support which is held by the holding element and on which at least one roller is rotatably mounted, - wherein the roller support is adjustable relative to the holding element , - on which at least one first and/or second guide element for guiding at least one adjusting element for adjusting the roller relative to the holding element in a direction parallel (y) and/or vertical (z) to the axis of rotation (D) of the roller are integrally formed, - wherein at least one first guide element is formed as a cam which cooperates with an adjusting element formed as an adjusting disc and mounted in a stationary but rotatable manner on the holding element , characterized in that - the roller support is designed as a die-cast part, - wherein the first guide elements formed as cams are integrally formed in a depression in the bearing surface of the roller support , wherein a side edge of the depression forms a guide edge for guiding the adjusting disc . - a holding element to which the sliding door can be fixed, - a roller support which is held by the holding element and on which at least one roller is rotatably mounted, - wherein the roller support is adjustable relative to the holding element , - on which at least one first and/or second guide element for guiding at least one adjusting element for adjusting the roller relative to the holding element in a direction parallel (y) and/or vertical (z) to the axis of rotation (D) of the roller are integrally formed, - wherein at least one first guide element is formed as a cam which cooperates with an adjusting element formed as an adjusting disc and mounted in a stationary but rotatable manner on the holding element , - the roller support is designed as a die-cast part, - wherein the first guide elements formed as cams are integrally formed in a depression in the bearing surface of the roller support , wherein a side edge of the depression forms a guide edge for guiding the adjusting disc .
A method of operating an internal combustion engine having an electrical processing circuit , said electrical processing circuit being coupled to an operating speed sensor , an external load indicator and a fuel supply system , the method comprising a sensing step for sensing an operating speed of said internal combustion engine ; a first comparing step, in that a value of said sensed operating speed is subtracted from a desired operating speed, said subtracted difference is compared with a first threshold value (Boost-on); a detecting step for detecting an operating speed reduction of said internal combustion engine , when said subtracted difference is greater than said first threshold value (Boost-on); a determining step for determining if said operating speed reduction is caused by an external load based on the value of the external load indicator wherein the external load indicator is a fault code indicating that a fuel line is plugged; a controlling step for controlling operation of the fuel supply system to increase an output of fuel above a normal maximum fuel output, when said operating speed reduction is caused by said external load , whereas the normal maximum fuel output represents under normal operating and load conditions the normal maximum fuel level, which corresponds to a maximum torque level on a standard torque fueling curve.
A slag wool composition comprising: 60 wt.% to 80 wt.% blast furnace slag; and 20 wt.% to 40 wt.% basalt, based on the total weight of the inorganic raw materials; wherein the composition has an A/B ratio in a range of 1.20 to 1.70, the A/B ratio is (Al 2 O 3 + SiO 2 ) / (CaO + MgO), the blast furnace slag in which the main elements are SiO 2 , CaO, Al 2 O 3 , and MgO and the basalt comprises 47.5 wt.% to 49.5 wt.% SiO 2 , 8.4 wt.% to 9.5 wt.% CaO, 5.9 wt.% to 7.0 wt.% MgO, 14.5 wt.% to 15.5 wt.% Al 2 O 3 , 13.0 wt.% to 14.0 wt.% Fe 2 O 3 , 2.0 wt.% to 3.0 wt.% Na 2 O, 0.15 wt.% to 0.25 wt.% P 2 O 5 , 0.55 wt.% to 0.85 wt.% K 2 O, 1.65 wt.% to 2.00 wt.% TiO 2 , 0.15 wt.% to 0.25 wt.% Mn 2 O 3 , up to 0.01 wt.% SO 3 , 0.02 wt.% to 0.04 wt.% SrO, 0.01 wt.% to 0.03 wt.% Cr 2 O 3 , 0.01 wt.% to 0.03 wt.% ZnO, and 0.02 wt.% to 0.04 wt.% BaO. 60 wt.% to 80 wt.% blast furnace slag; and 20 wt.% to 40 wt.% basalt, based on the total weight of the inorganic raw materials; wherein the composition has an A/B ratio in a range of 1.20 to 1.70, the A/B ratio is (Al 2 O 3 + SiO 2 ) / (CaO + MgO), the blast furnace slag in which the main elements are SiO 2 , CaO, Al 2 O 3 , and MgO and the basalt comprises 47.5 wt.% to 49.5 wt.% SiO 2 , 8.4 wt.% to 9.5 wt.% CaO, 5.9 wt.% to 7.0 wt.% MgO, 14.5 wt.% to 15.5 wt.% Al 2 O 3 , 13.0 wt.% to 14.0 wt.% Fe 2 O 3 , 2.0 wt.% to 3.0 wt.% Na 2 O, 0.15 wt.% to 0.25 wt.% P 2 O 5 , 0.55 wt.% to 0.85 wt.% K 2 O, 1.65 wt.% to 2.00 wt.% TiO 2 , 0.15 wt.% to 0.25 wt.% Mn 2 O 3 , up to 0.01 wt.% SO 3 , 0.02 wt.% to 0.04 wt.% SrO, 0.01 wt.% to 0.03 wt.% Cr 2 O 3 , 0.01 wt.% to 0.03 wt.% ZnO, and 0.02 wt.% to 0.04 wt.% BaO.
A cartridge for a vaporizer device, the cartridge comprising: a reservoir chamber defined by a reservoir barrier , the reservoir chamber being configured to contain a liquid vaporizable material ; a vaporization chamber in fluid communication with the reservoir chamber and including a wicking element configured to draw the liquid vaporizable material from the reservoir chamber to the vaporization chamber to be vaporized by a heating element; an inlet , an outlet , and an airflow passageway , wherein the airflow passageway extends through the vaporization chamber and between the inlet and the outlet ; an airflow control feature configured to control a reservoir pressure in the reservoir chamber; characterized in that the cartridge comprises an airflow restrictor configured to restrict the passage of airflow along the airflow passageway and the airflow control feature is positioned between the airflow restrictor and the outlet . a reservoir chamber defined by a reservoir barrier , the reservoir chamber being configured to contain a liquid vaporizable material ; a vaporization chamber in fluid communication with the reservoir chamber and including a wicking element configured to draw the liquid vaporizable material from the reservoir chamber to the vaporization chamber to be vaporized by a heating element; an inlet , an outlet , and an airflow passageway , wherein the airflow passageway extends through the vaporization chamber and between the inlet and the outlet ; an airflow control feature configured to control a reservoir pressure in the reservoir chamber; characterized in that the cartridge comprises an airflow restrictor configured to restrict the passage of airflow along the airflow passageway and the airflow control feature is positioned between the airflow restrictor and the outlet .
Valve with a drive, with a plunger connected to the drive, with a closing body , which has a main body with a first sealing surface and which is arranged at that end of the plunger which is situated opposite the connection to the drive, and with a valve body with a first valve seat against which the closing body bears by way of its first sealing surface in the closed state of the valve, wherein the closing body has a second sealing surface which bears against a second valve seat of the valve body in the closed state of the valve, wherein an arcuate portion which has a resilient action owing to its shape leads radially outwards from the main body , at the radially outer end of which arcuate portion there is arranged a plastics or elastomer component which forms the second sealing surface or such a component with plastics or elastomer coating, characterized in that the part gives rise to an areal, circular-ring-shaped seal running perpendicular to the plunger axis, wherein the first valve seat is a conical radius which delimits the bore in the valve body and which imparts a centring action in relation to the closing body during the closing of the valve in order to realize a circular-ring-shaped seal.
A pharmaceutical composition for use in relieving or treating pain, which comprises a gene encoding glutamate decarboxylase (GAD) and a gene encoding interleukin-10 (IL-10).
A heavy truck tire tread having a longitudinal direction, a lateral direction (LD) and a thickness direction, said tread comprising : - a pair of opposing tread edges spaced apart along the lateral direction; - a tread region extending between the tread edges over a rolling tread width (RTW); - a shoulder zone (SZ) adjacent to each tread edge of said pair of opposing tread edges and extending over a lateral length of 10% of the rolling tread width (RTW); and - a center zone (CZ) defined between said shoulder zones; wherein the tread region comprises a plurality of ribs separated by grooves , said grooves running continuously from the center zone toward each of said tread edges at a groove angle (α) relative to the lateral direction and extending out to the respective tread edge; and wherein: - a shoulder zone average groove angle (αs) is greater than 45° in absolute value; - the shoulder zone average groove angle (αs) is greater than a center zone average groove angle (αc) in absolute values; and - the grooves are running toward the tread edges against a rolling direction of the tire. - a pair of opposing tread edges spaced apart along the lateral direction; - a tread region extending between the tread edges over a rolling tread width (RTW); - a shoulder zone (SZ) adjacent to each tread edge of said pair of opposing tread edges and extending over a lateral length of 10% of the rolling tread width (RTW); and - a center zone (CZ) defined between said shoulder zones; - a shoulder zone average groove angle (αs) is greater than 45° in absolute value; - the shoulder zone average groove angle (αs) is greater than a center zone average groove angle (αc) in absolute values; and - the grooves are running toward the tread edges against a rolling direction of the tire.
A micro-perforated glass or glass-ceramics laminate, comprising: a first substrate laminated to a second substrate by a first polymer interlayer, wherein the first and the second substrates are independently selected from glass and glass-ceramics; and a plurality of micro-perforations, each of the plurality of micro-perforations extending through the first substrate, the first polymer interlayer, and the second substrate. a first substrate laminated to a second substrate by a first polymer interlayer, wherein the first and the second substrates are independently selected from glass and glass-ceramics; and a plurality of micro-perforations, each of the plurality of micro-perforations extending through the first substrate, the first polymer interlayer, and the second substrate.