mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaning blower for a combine harvester , comprising: - at least one fan wheel arranged on at least one drive shaft, - at least one housing portion which encases the at least one fan wheel and which has at least one inlet opening for sucking in air and at least one first outlet segment extending in the tangential direction of the respective fan wheel, - and a passage portion adjoining the first outlet segment , wherein the passage portion is formed from substantially perpendicularly extending side walls and substantially horizontally extending walls , and wherein arranged in the interior of the passage portion are U-shaped wall portions whose long limbs extend substantially parallel to the side walls and connect the first outlet segment of mutually adjacent housing portions together and wherein a respective short limb of the wall portions is of an arcuate configuration curved in the direction of an outlet opening of the passage portion , characterised in that the at least one housing portion and the passage portion are in the form of a one-piece housing comprising a plastic material, wherein there are provided at least two fan wheels, each of which is encased by a housing portion of the one-piece housing . - at least one fan wheel arranged on at least one drive shaft, - at least one housing portion which encases the at least one fan wheel and which has at least one inlet opening for sucking in air and at least one first outlet segment extending in the tangential direction of the respective fan wheel, - and a passage portion adjoining the first outlet segment , wherein the passage portion is formed from substantially perpendicularly extending side walls and substantially horizontally extending walls , and wherein arranged in the interior of the passage portion are U-shaped wall portions whose long limbs extend substantially parallel to the side walls and connect the first outlet segment of mutually adjacent housing portions together and wherein a respective short limb of the wall portions is of an arcuate configuration curved in the direction of an outlet opening of the passage portion , characterised in that the at least one housing portion and the passage portion are in the form of a one-piece housing comprising a plastic material, wherein there are provided at least two fan wheels, each of which is encased by a housing portion of the one-piece housing .
Hybrid solar module roof-mounting system having height-adjustment elements for fastening to a building roof , support rails for fastening to the height-adjustment elements in the roof-inclination direction of the building roof such that said support rails bear on the height-adjustment elements , and heat exchangers having a fluid duct for fastening to the support rails in the ridge direction , and having a planar upper side for the disposal of solar modules so as to bear in a planar manner on said upper side, characterized in that the support rails have a plurality of mounting recesses through which one height-adjustment element is in each case guided, and a support element by way of which the support trail bears on the height-adjustment element and on account thereof is supported by the height-adjustment element is disposed above each mounting recess .
A method for operating a reputation server engine , the method executable on a computing device and comprising: parsing an executable object into a plurality of subroutines (A-S); determining , for each subroutine (A-S), the number of times the subroutine (A-S) is executed during use, and the number of calls to the subroutine (A-S) present within the executable object , as frequency factors; assigning each subroutine (A-S) a reputation score based at least in part on said frequency factors, by computing a weighted average of said frequency factors, or by determining whether one or more of said frequency factors are above or below respective thresholds, wherein the reputation represents a confidence level related to a decision of whether the subroutine (A-S) is, or contains, malware, and the less frequently the subroutine (A-S) is executed, the more suspicious it is considered to be. parsing an executable object into a plurality of subroutines (A-S); determining , for each subroutine (A-S), the number of times the subroutine (A-S) is executed during use, and the number of calls to the subroutine (A-S) present within the executable object , as frequency factors; assigning each subroutine (A-S) a reputation score based at least in part on said frequency factors, by computing a weighted average of said frequency factors, or by determining whether one or more of said frequency factors are above or below respective thresholds, wherein the reputation represents a confidence level related to a decision of whether the subroutine (A-S) is, or contains, malware, and the less frequently the subroutine (A-S) is executed, the more suspicious it is considered to be.
Meter electronics for detecting a flow anomaly in a flow material flowing through a flow meter , the meter electronics comprising an interface for receiving a vibrational response of the flow material, wherein the vibrational response comprises at least a first sensor signal and a second sensor signal and a processing system in communication with the interface and arranged to receive the vibrational response from the interface ; the meter electronics being characterized by comprising means for storing one or more anomaly profiles, and the processing system being configured to: generate a first ninety degree phase shifted signal from the first sensor signal and generate at least one flow characteristic using at least the first sensor signal and the first ninety degree phase shifted signal; compare the at least one flow characteristic to at least one of the stored anomaly profiles; and, if the at least one flow characteristic falls within one of the stored anomaly profiles, indicate an anomaly condition. generate a first ninety degree phase shifted signal from the first sensor signal and generate at least one flow characteristic using at least the first sensor signal and the first ninety degree phase shifted signal; compare the at least one flow characteristic to at least one of the stored anomaly profiles; and, if the at least one flow characteristic falls within one of the stored anomaly profiles, indicate an anomaly condition.
A screw compressor comprising: a screw rotor , a casing configured to accommodate the screw rotor , and a liquid supply mechanism configured to supply liquid in a compression chamber defined in the casing , wherein the liquid supply mechanism includes a plurality of liquid supply sections causing jet streams of the liquid to collide with each other to be thinned or atomized so as to supply to the compression chamber ; and a supply path configured to supply the liquid supplied from an upstream to the plurality of liquid supply sections , the screw compressor characterized in that the plurality of liquid supply sections are directly connected to a side surface of the supply path , the plurality of liquid supply sections includes a first liquid supply section , and a second liquid supply section located downstream of the supply path with respect to the first liquid supply section , the first liquid supply section communicates with a first region of the compression chamber , the second liquid supply section communicates with a second region of the compression chamber , and a gas pressure in the first region is higher than a gas pressure in the second region. a screw rotor , a casing configured to accommodate the screw rotor , and a liquid supply mechanism configured to supply liquid in a compression chamber defined in the casing , wherein the liquid supply mechanism includes a plurality of liquid supply sections causing jet streams of the liquid to collide with each other to be thinned or atomized so as to supply to the compression chamber ; and a supply path configured to supply the liquid supplied from an upstream to the plurality of liquid supply sections , the screw compressor characterized in that the plurality of liquid supply sections are directly connected to a side surface of the supply path , the plurality of liquid supply sections includes a first liquid supply section , and a second liquid supply section located downstream of the supply path with respect to the first liquid supply section , the first liquid supply section communicates with a first region of the compression chamber , the second liquid supply section communicates with a second region of the compression chamber , and a gas pressure in the first region is higher than a gas pressure in the second region.
Method of producing a rigid PUR-PIR foam by reacting a PUR-PIR system comprising 1) an isocyanate component A comprising 1.1) 15-25 wt% of isocyanurate groups and 1.2) 30-55 wt% of monomeric MDI, 1.3) an NCO content of 23-30 wt% (EN ISO 11909:2007), all based on the total weight of the isocyanate component, and 2) a polyol formulation (B) in the presence of 3) blowing agents (C), 4) catalysts (D), and 5) optionally further auxiliary and added-substance materials (E) wherein the isocyanate component A is obtained by a method comprising the steps of (i) preparing an isocyanate blend A2 by partially trimerizing an isocyanate mixture A1 comprising oligomeric and monomeric MDI, wherein A1 prior to trimerization has - a total monomeric MDI content of 55-80 wt% (based on the total weight of A1) and - a viscosity of < 30 mPas at 25°C (DIN EN ISO 3219:1994); and (ii) optionally then blending the partially trimerized isocyanate blend A2 obtained in step (i) with further isocyanates (A3), preferably polymeric MDI, and wherein the system comprising the components A-E has an isocyanate index of 90 to 150. 1) an isocyanate component A comprising 1.1) 15-25 wt% of isocyanurate groups and 1.2) 30-55 wt% of monomeric MDI, 1.3) an NCO content of 23-30 wt% (EN ISO 11909:2007), all based on the total weight of the isocyanate component, and 1.2) 30-55 wt% of monomeric MDI, 1.3) an NCO content of 23-30 wt% (EN ISO 11909:2007), 2) a polyol formulation (B) in the presence of 3) blowing agents (C), 4) catalysts (D), and 5) optionally further auxiliary and added-substance materials (E) (i) preparing an isocyanate blend A2 by partially trimerizing an isocyanate mixture A1 comprising oligomeric and monomeric MDI, wherein A1 prior to trimerization has - a total monomeric MDI content of 55-80 wt% (based on the total weight of A1) and - a viscosity of < 30 mPas at 25°C (DIN EN ISO 3219:1994); and - a total monomeric MDI content of 55-80 wt% (based on the total weight of A1) and - a viscosity of < 30 mPas at 25°C (DIN EN ISO 3219:1994); and (ii) optionally then blending the partially trimerized isocyanate blend A2 obtained in step (i) with further isocyanates (A3), preferably polymeric MDI,
A battery management system for a lithium ion battery of an electrical appliance , in particular of an electrical hand tool or an electrical gardening tool, which is configured to - determine a difference between a current requirement and a preset measuring current , which corresponds to an amount of charge electrochemically providable by means of the lithium ion battery per time unit due to its maximally possible response speed; - control an output current of the lithium-ion battery such that the difference is covered using a dielectric capacitance of the lithium ion battery insofar as it is thereby not departed from preset acceptable operating states of the lithium ion battery . - determine a difference between a current requirement and a preset measuring current , which corresponds to an amount of charge electrochemically providable by means of the lithium ion battery per time unit due to its maximally possible response speed; - control an output current of the lithium-ion battery such that the difference is covered using a dielectric capacitance of the lithium ion battery insofar as it is thereby not departed from preset acceptable operating states of the lithium ion battery .
A method comprising, receiving location information from each of a plurality of nodes in a network , the plurality of nodes including at least one node that is moving relative to another node of the network; converting the received location information for each node into a corresponding network address, the corresponding network address being based on a hierarchical cell-based partitioning scheme; identifying , by one or more processors of a network controller , a target region for a given node of the network based on a plurality of routing paths, the target region encompassing two or more nodes in the network that are next hops for the given node and that have a common segment in the corresponding network addresses, wherein the two or more nodes in the target region includes a moving node; and sending , by the one or more processors of the network controller, one or more forwarding rules to one or more nodes in the network, the one or more forwarding rules including the common segment to identify the next hops for the given node; receiving new location information for the moving node; determining a new network address for the moving node based on the new location information; and when the new network address does not have the common segment, sending, by the one or more processors of the network controller, the new network address to the moving node. receiving location information from each of a plurality of nodes in a network , the plurality of nodes including at least one node that is moving relative to another node of the network; converting the received location information for each node into a corresponding network address, the corresponding network address being based on a hierarchical cell-based partitioning scheme; identifying , by one or more processors of a network controller , a target region for a given node of the network based on a plurality of routing paths, the target region encompassing two or more nodes in the network that are next hops for the given node and that have a common segment in the corresponding network addresses, wherein the two or more nodes in the target region includes a moving node; and sending , by the one or more processors of the network controller, one or more forwarding rules to one or more nodes in the network, the one or more forwarding rules including the common segment to identify the next hops for the given node; receiving new location information for the moving node; determining a new network address for the moving node based on the new location information; and when the new network address does not have the common segment, sending, by the one or more processors of the network controller, the new network address to the moving node.
A means to control flow from an infusion device, said means comprising: a) a plurality of input orifices , where the sizes of the input orifices are selected to control the drop size, b) an output orifice, c) a single reservoir , d) a level sensor having an output signal proportional to the level of fluid in the reservoir , e) a plurality of light sources , f) a plurality of light detectors each positioned to detect light from one of the light sources with a space between the light source and the light detector , and the light source and light detector positioned such that drops from one of the input orifices traverse through the space between the light source and the light detector at least partially blocking the light output from the light source , said detector having an electrical output proportional to the intensity of light received from said light source , g) a means to restrict flow from the output orifice comprising an actuator that variably squeezes a compressible tube attached to the output orifice, h) a controller comprising a processor, memory, and, an input signal from the light detector and said controller having an output signal proportional to the flow from the infusion device. a) a plurality of input orifices , where the sizes of the input orifices are selected to control the drop size, b) an output orifice, c) a single reservoir , d) a level sensor having an output signal proportional to the level of fluid in the reservoir , e) a plurality of light sources , f) a plurality of light detectors each positioned to detect light from one of the light sources with a space between the light source and the light detector , and the light source and light detector positioned such that drops from one of the input orifices traverse through the space between the light source and the light detector at least partially blocking the light output from the light source , said detector having an electrical output proportional to the intensity of light received from said light source , g) a means to restrict flow from the output orifice comprising an actuator that variably squeezes a compressible tube attached to the output orifice, h) a controller comprising a processor, memory, and, an input signal from the light detector and said controller having an output signal proportional to the flow from the infusion device.
Tool for producing roof ridge-shaped chamfers on teeth of an internally and externally toothed gearwheel , wherein the tool (1', 1") comprises - a finger-like tool carrier having a holding section which is associated with an end face of the tool carrier and provided for fastening in a tool holder of a machine tool, and - a chamfering tool , which is held on the end section of the tool carrier associated with the other end face, and during use describes an impact circle (S14, 15) with its cutting edge , whose diameter is determined by the radial distance of the cutting edge of the chamfering tool from the axis of rotation (X', X") of the tool , wherein at least one further chamfering tool is attached in a middle section of the tool carrier , which is offset in the direction of the holding section of the tool carrier relative to the end section provided with the chamfering tool , and wherein the further chamfering tool is held with its cutting edge at a radial distance to the axis of rotation (X', X") of the tool , said radial distance being greater than the radial distance of the cutting edge of the chamfering tool held on the end section of the tool holder , characterised in that the radial distance of the cutting edge of the chamfering tool , attached respectively to the middle section of the tool carrier , from the axis of rotation (X', X") is at least 1.5 times greater than the radial distance of the cutting edge of the chamfering tool , attached respectively to the end section of the tool carrier , from the axis of rotation (X', X"). - a finger-like tool carrier having a holding section which is associated with an end face of the tool carrier and provided for fastening in a tool holder of a machine tool, and - a chamfering tool , which is held on the end section of the tool carrier associated with the other end face, and during use describes an impact circle (S14, 15) with its cutting edge , whose diameter is determined by the radial distance of the cutting edge of the chamfering tool from the axis of rotation (X', X") of the tool ,
A power unit comprising: an engine body that includes a crankcase that supports a crankshaft rotatably around a rotation axis (Rx), and a water jacket that guides a flow of coolant water around a combustion chamber ; a radiator that is disposed at a position facing one end of the crankshaft protruding from a first side of the crankcase , and that is connected to the water jacket by a pipe ; a belt type continuously variable transmission that includes a driving pulley attached to the crankshaft projecting from a second side of the crankcase opposite to the first side, and a belt wound on a driven pulley attached to a driven shaft ; a transmission case that is connected to the crankcase and forms a transmission chamber accommodating the belt ; and a cooling fan that is fixed to the crankshaft and generates an air flow in response to rotation of the crankshaft , characterized in that as said cooling fan , a single cooling fan is provided and fixed to one end of the crankshaft , and the engine body is provided with a first guide path that guides the air flow of the cooling fan toward the belt in the transmission chamber and a second guide path that guides the air flow of the cooling fan which passes through the radiator . an engine body that includes a crankcase that supports a crankshaft rotatably around a rotation axis (Rx), and a water jacket that guides a flow of coolant water around a combustion chamber ; a radiator that is disposed at a position facing one end of the crankshaft protruding from a first side of the crankcase , and that is connected to the water jacket by a pipe ; a belt type continuously variable transmission that includes a driving pulley attached to the crankshaft projecting from a second side of the crankcase opposite to the first side, and a belt wound on a driven pulley attached to a driven shaft ; a transmission case that is connected to the crankcase and forms a transmission chamber accommodating the belt ; and a cooling fan that is fixed to the crankshaft and generates an air flow in response to rotation of the crankshaft , characterized in that as said cooling fan , a single cooling fan is provided and fixed to one end of the crankshaft , and the engine body is provided with a first guide path that guides the air flow of the cooling fan toward the belt in the transmission chamber and a second guide path that guides the air flow of the cooling fan which passes through the radiator .
A packaging apparatus and an optional device which can be optionally attached to the packaging apparatus , the packaging apparatus being configured to operate a packaging mechanism to manufacture packages containing an article inside, the packaging apparatus comprising: an operation control unit configured to control an operation of the packaging mechanism in accordance with an operation command received by a receiving unit of the packaging apparatus ; a first detection unit configured to detect whether or not the optional device is attached to the packaging apparatus ; a second detection unit configured to detect whether a setting of the optional device is set to an operative setting or an inoperative setting in the operation command; a notification unit configured to issue a notification of information relating to the optional device ; and a notification control unit configured to control the notification unit to make the notification unit issue a notification that the setting of the optional device is set to the inoperative setting in a case where the first detection unit detects that the optional device is attached to the packaging apparatus and the second detection unit detects that the setting of the optional device is set to the inoperative setting in the operation command, before the operation of the packaging mechanism is started. an operation control unit configured to control an operation of the packaging mechanism in accordance with an operation command received by a receiving unit of the packaging apparatus ; a first detection unit configured to detect whether or not the optional device is attached to the packaging apparatus ; a second detection unit configured to detect whether a setting of the optional device is set to an operative setting or an inoperative setting in the operation command; a notification unit configured to issue a notification of information relating to the optional device ; and a notification control unit configured to control the notification unit to make the notification unit issue a notification that the setting of the optional device is set to the inoperative setting in a case where the first detection unit detects that the optional device is attached to the packaging apparatus and the second detection unit detects that the setting of the optional device is set to the inoperative setting in the operation command, before the operation of the packaging mechanism is started.