mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method of designing a fire detection system , the method comprising determining a probability of a fire in a room ; determining a number of fire detection devices for a fire detection system within the room in response to the probability of the fire in the room; determining a number of fire suppression devices for the fire detection system within the room in response to the probability of a fire in the room; and determining a location of each of the fire detection devices within the room and a location of the fire suppression devices within the room, wherein determining the probability of a fire in a room further comprises: determining a geometry of a room in response to a floor plan ; determining whether one or more articles are located within the room and a flammability of each of the one or more articles; determining whether one or more hazards are located within the room; and determining the probability of a fire in the room in response to at least one or more articles are located within the room, the flammability of each of the one or more articles, and the one or more hazards are located within the room. determining a probability of a fire in a room ; determining a number of fire detection devices for a fire detection system within the room in response to the probability of the fire in the room; determining a number of fire suppression devices for the fire detection system within the room in response to the probability of a fire in the room; and determining a location of each of the fire detection devices within the room and a location of the fire suppression devices within the room, wherein determining the probability of a fire in a room further comprises: determining a geometry of a room in response to a floor plan ; determining whether one or more articles are located within the room and a flammability of each of the one or more articles; determining whether one or more hazards are located within the room; and determining the probability of a fire in the room in response to at least one or more articles are located within the room, the flammability of each of the one or more articles, and the one or more hazards are located within the room. determining a geometry of a room in response to a floor plan ; determining whether one or more articles are located within the room and a flammability of each of the one or more articles; determining whether one or more hazards are located within the room; and determining the probability of a fire in the room in response to at least one or more articles are located within the room, the flammability of each of the one or more articles, and the one or more hazards are located within the room.
A surgical lighting system, comprising: a light head housing including a plurality of light emitting elements therein that are arranged to emit light downward to a region of interest; a handle mounted to the light head housing and protruding downward from the light head housing, the handle including a handle housing having a sufficient size to be gripped by the human hand; and a camera mounted within the handle housing, the camera having a field of view that encompasses at least a portion of the region of interest; wherein the handle housing has an upper generally tubular section mounted to the light head housing and a lower generally tubular section extending downward from a bottom of the upper generally tubular section, the outer perimeter of the lower generally tubular section being relatively wider in axial cross section than the outer perimeter of the upper generally tubular section over a portion of the upper generally tubular section; wherein a bottom of the lower generally tubular section is open downward and the camera is sized for insertion through the open bottom to within the handle housing and axially above the open bottom.
A system for monitoring soil conditions within a field, the system comprising an agricultural implement configured to be traversed across a field, the implement including a frame extending laterally between a first side and a second side , the implement further including a plurality of ground engaging tools pivotally coupled to the frame , the ground engaging tools ) being spaced apart from one another laterally between the first and second sides of the frame , the implement further including a plurality of biasing elements , each biasing element being coupled between the frame and a corresponding ground engaging tool of the plurality of ground engaging tools and being configured to bias the corresponding ground engaging tool to a predetermined ground engaging tool position relative to the frame , the system further comprising a plurality of sensors , each sensor being configured to detect a parameter indicative of a current position of one of the plurality of ground engaging tools relative to the predetermined ground engaging tool position, the system further comprising a controller communicatively coupled to the plurality of sensors , the controller being configured to monitor an individual displacement of each ground engaging tool relative to the predetermined ground engaging tool position based on sensor measurements provided by the plurality of sensors , wherein the system is characterized by the controller being configured to, when the implement is being traversed across a swath of the field: determine a current global ground engaging tool displacement parameter for the implement based on a maximum displacement value or an average displacement value of the monitored individual displacements of the plurality of ground engaging tools ; compare the current global ground engaging tool displacement parameter to a predetermined global displacement threshold; and identify, based on the comparison between the current global ground engaging tool displacement parameter and the predetermined global displacement threshold, a soil condition for the swath of the field being traversed by the implement . determine a current global ground engaging tool displacement parameter for the implement based on a maximum displacement value or an average displacement value of the monitored individual displacements of the plurality of ground engaging tools ; compare the current global ground engaging tool displacement parameter to a predetermined global displacement threshold; and identify, based on the comparison between the current global ground engaging tool displacement parameter and the predetermined global displacement threshold, a soil condition for the swath of the field being traversed by the implement .
A method of forming a duct component having a first surface and a second surface movable between an unassembled position and an assembled position, the method is characterized by : (a) applying a paint sealant to each of the first and the second surfaces such that, when the duct is assembled, the previously applied paint sealant contacts an opposing confronting surface having the paint sealant ; (b) one of drying or curing the applied paint sealant ; and (c) moving the first and second surfaces from the unassembled to the assembled position, the paint sealant forming a sealed interface between the assembled first surface and second surface. (a) applying a paint sealant to each of the first and the second surfaces such that, when the duct is assembled, the previously applied paint sealant contacts an opposing confronting surface having the paint sealant ; (b) one of drying or curing the applied paint sealant ; and (c) moving the first and second surfaces from the unassembled to the assembled position, the paint sealant forming a sealed interface between the assembled first surface and second surface.
A method of assisting a driver of a vehicle (VA) adapted to be driven in an automated manner and manually, by means of a steering wheel (VV), on a traffic lane (VCj), said method comprising a step in which an optimal trajectory of said vehicle (VA) in the event of automated driving and an actual current trajectory of said vehicle (VA) on said traffic lane (VCj) are determined, characterized in that in said step a value of a parameter representative of a manual intervention in progress by said driver on said steering wheel (VV) is also determined, and said optimal trajectory and actual trajectory in progress determined with an aspect dependent on said value of the parameter determined is materialized on a support (EA).
Wringer for a mopping appliance, comprising a basket-like receptacle , in which the mopping appliance can be wrung out by being pushed in, and also comprising a holder for fastening the wringer in a bucket, characterized in that the receptacle is guided in the holder such that the receptacle is movable in a translatory manner in the direction of introduction of the mopping appliance, wherein a guide is provided, and said guide allows the translatory movement of the receptacle relative to the holder .
A method of manufacturing a data page for a book-like document , in particular a document of value and/or a security document, which comprises a data carrier and, fastened thereto, a tab made of a textile tape material, - in which said textile tape material used for forming the tab , which is different from the data carrier , is positioned along a longitudinal side of the data carrier in a manner so as to form an overlap region , with an area being formed which protrudes from the data carrier , and - in which the textile tape material and the data carrier are joined together in said overlap region , characterised in that - the data carrier has a base size in which opposing front edges are spaced apart a greater distance than the distance between cutting lines for forming lateral edges of the data carrier in its final format, and in that this data carrier is brought together with the tab , - before the tab is brought together with the data carrier , the tab is cut to a length, forming end faces , which is shorter than a distance between the cutting lines for forming the lateral edges of the data carrier in its final format, - at least the end faces of the tab are sealed or a tab having a sealed tape material is provided, and - the tab is positioned with respect to the data carrier , and joined thereto, in such a manner that an overlap region is formed, each end face being oriented so as to be recessed inwardly with respect to the cutting line . - in which said textile tape material used for forming the tab , which is different from the data carrier , is positioned along a longitudinal side of the data carrier in a manner so as to form an overlap region , with an area being formed which protrudes from the data carrier , and - in which the textile tape material and the data carrier are joined together in said overlap region , characterised in that - the data carrier has a base size in which opposing front edges are spaced apart a greater distance than the distance between cutting lines for forming lateral edges of the data carrier in its final format, and in that this data carrier is brought together with the tab , - before the tab is brought together with the data carrier , the tab is cut to a length, forming end faces , which is shorter than a distance between the cutting lines for forming the lateral edges of the data carrier in its final format, - at least the end faces of the tab are sealed or a tab having a sealed tape material is provided, and - the tab is positioned with respect to the data carrier , and joined thereto, in such a manner that an overlap region is formed, each end face being oriented so as to be recessed inwardly with respect to the cutting line .
An ultrasonic surgical instrument , comprising: a housing ; an ultrasonic transducer assembly rotatably supported within said housing and coupled to a blade ; a motor mounted within said housing , said motor having a distal drive shaft portion coupled to said ultrasonic transducer assembly for applying rotational motion thereto, said motor further having a proximal drive shaft portion protruding therefrom; and a slip ring assembly comprising: an inner contact supported by said proximal drive shaft portion for rotational travel therewith, said inner contact in communication with said ultrasonic transducer assembly ; and a fixed contact in sliding contact with said inner contact and communicating with an ultrasound signal generator to transmit ultrasonic electrical signals to said inner contact ; characterised in that said ultrasonic transducer assembly is supported by a transducer housing rotatably supported within said housing ;and said distal drive shaft portion is coupled to said transducer housing by a coupling assembly comprising: a plate member coupled to said distal drive shaft portion ; and a hole in said transducer housing for non-rotatably receiving said plate member therein to substantially acoustically isolate said motor from said ultrasonic transducer assembly . a housing ; an ultrasonic transducer assembly rotatably supported within said housing and coupled to a blade ; a motor mounted within said housing , said motor having a distal drive shaft portion coupled to said ultrasonic transducer assembly for applying rotational motion thereto, said motor further having a proximal drive shaft portion protruding therefrom; and a slip ring assembly comprising: an inner contact supported by said proximal drive shaft portion for rotational travel therewith, said inner contact in communication with said ultrasonic transducer assembly ; and a fixed contact in sliding contact with said inner contact and communicating with an ultrasound signal generator to transmit ultrasonic an inner contact supported by said proximal drive shaft portion for rotational travel therewith, said inner contact in communication with said ultrasonic transducer assembly ; and a fixed contact in sliding contact with said inner contact and communicating with an ultrasound signal generator to transmit ultrasonic electrical signals to said inner contact ; said ultrasonic transducer assembly is supported by a transducer housing rotatably supported within said housing ;and said distal drive shaft portion is coupled to said transducer housing by a coupling assembly comprising: a plate member coupled to said distal drive shaft portion ; and a hole in said transducer housing for non-rotatably receiving said plate member therein to substantially acoustically isolate said motor from said ultrasonic transducer assembly . a plate member coupled to said distal drive shaft portion ; and a hole in said transducer housing for non-rotatably receiving said plate member therein to substantially acoustically isolate said motor from said ultrasonic transducer assembly .
A biaxially oriented multilayer film comprising at least three layers A/B/C, wherein: - the external layer (A) comprises an ethylene polymer having a melting point (Tf) ≤ 100°C, preferably 70°-100°C, more preferably 80°-100°C, still more preferably 90°-100°C; - the central layer (B) comprises a propylene polymer having a melting point (Tf) ≥ 140°C, preferably ≥ 160°C; and - the internal layer (C) comprises an ethylene polymer having a melting point (Tf) > 105°C and ≤ 115°C, preferably 110°-115°C, and a density of 0.910 - 0.940 g/cm 3 , preferably 0.920 - 0.930 g/cm 3 . - the external layer (A) comprises an ethylene polymer having a melting point (Tf) ≤ 100°C, preferably 70°-100°C, more preferably 80°-100°C, still more preferably 90°-100°C; - the central layer (B) comprises a propylene polymer having a melting point (Tf) ≥ 140°C, preferably ≥ 160°C; and - the internal layer (C) comprises an ethylene polymer having a melting point (Tf) > 105°C and ≤ 115°C, preferably 110°-115°C, and a density of 0.910 - 0.940 g/cm 3 , preferably 0.920 - 0.930 g/cm 3 .
A method performed by a user equipment for self-optimization network information transmission, the user equipment being used in an internet of things network system, the method comprising: receiving a configuration from a first base station ; receiving a self-optimization network parameter from a second base station ; resuming or establishing a connection between the user equipment and the first base station ; and transmitting, via the connection, a self-optimization network information to the first base station based on the configuration; wherein the configuration configures the user equipment to transmit the self-optimization network information as one of: transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station , wherein the self-optimization network information comprises the self-optimization network parameter of the second base station ; and transmitting the self-optimization network information to the first base station after a specific period. receiving a configuration from a first base station ; receiving a self-optimization network parameter from a second base station ; resuming or establishing a connection between the user equipment and the first base station ; and transmitting, via the connection, a self-optimization network information to the first base station based on the configuration; wherein the configuration configures the user equipment to transmit the self-optimization network information as one of: transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station , wherein the self-optimization network information comprises the self-optimization network parameter of the second base station ; and transmitting the self-optimization network information to the first base station after a specific period. transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station , wherein the self-optimization network information comprises the self-optimization network parameter of the second base station ; and transmitting the self-optimization network information to the first base station after a specific period.
A data transmission method performed by a device, wherein the device is configured with a plurality of first radio resource control, RRC, parameters configured for configured grant transmission and with a plurality of second RRC parameters configured for dynamic transmission which is triggered by a network side device through dynamic uplink, UL, grant, the first RRC parameters comprise a first modulation coding scheme, MCS, table, the second RRC parameters comprise a second MCS table, and the method comprises: transmitting data using the first RRC parameters; and when retransmission of the data is triggered by dynamic LTL grant due to a semi-persistent scheduling, SPS, transmission failure occurring during the transmission of the data, retransmitting the data using the first MCS table, wherein the device is a user equipment, UE, and the data is transmitted and retransmitted by the UE to the network side device. transmitting data using the first RRC parameters; and when retransmission of the data is triggered by dynamic LTL grant due to a semi-persistent scheduling, SPS, transmission failure occurring during the transmission of the data, retransmitting the data using the first MCS table, wherein the device is a user equipment, UE, and the data is transmitted and retransmitted by the UE to the network side device.
A USB type-C DRP device , comprising: a USB interface configured to transmit and receive power and data; a controller ; and characterized by a random number generator circuit configured to generate a random number, wherein the controller is configured to receive the random number and to select a dual role port, DRP, duty cycle and to select a DRP duration based upon the random number, wherein the DRP duty cycle and DRP duration are used when connecting the USB interface to a USB interface of another USB type-C DRP device . a USB interface configured to transmit and receive power and data; a controller ; and characterized by a random number generator circuit configured to generate a random number, wherein the controller is configured to receive the random number and to select a dual role port, DRP, duty cycle and to select a DRP duration based upon the random number, wherein the DRP duty cycle and DRP duration are used when connecting the USB interface to a USB interface of another USB type-C DRP device .
An apparatus for producing spunbonded nonwovens from continuous filaments , in particular from continuous filaments of thermoplastic material, wherein a spinneret is provided for spinning the continuous filaments and wherein a cooling chamber is provided for cooling the spun filaments with cooling air, wherein respectively one air supply chamber is arranged on two opposite sides of the cooling chamber , and wherein cooling air can be introduced into the cooling chamber from the opposite air supply chambers , wherein at least one supply line for the supply of cooling air having a cross-sectional area Q z is connected to each air supply chamber, wherein this cross-sectional area Q Z increases on transition of the cooling air into the air supply chamber to a cross-sectional area Q L of the air supply chamber , wherein the cross-sectional area Q L is at least twice as large, preferably at least three times as large as the cross-sectional area Q Z of the supply line , wherein at least one flow straightener arranged upstream of the cooling chamber is provided in each air supply chamber , wherein at last one planar homogenizing element for homogenizing the cooling air flow introduced into the air supply chamber is provided in the air supply chamber in the flow direction of the cooling air upstream of the flow straightener and at a distance from the flow straightener and wherein the planar homogenizing element comprises a plurality of openings, wherein the free open area of the planar homogenizing element is 1 to 40%, preferably 2 to 35% and preferably 2 to 30% of the total area of the planar homogenizing element .
An end-of-service-life indicator system for a filter cartridge for a respirator , comprising: a gas sensor ; first and second sample streams from the cartridge in fluid communication with the gas sensor ; and a two-way valve configured to control the flow from the first and second sample streams to the gas sensor by alternating between a mixture of the first and second sample streams and only the second sample stream , wherein the gas sensor is configured to compare a gas level present in the mixture of the first and second sample streams and a gas level present in the second sample stream ; wherein each of the first and second sample streams samples from sample points within the cartridge and the sample points for the first and second sample streams are located at different depths within the cartridge , the system further comprising an alert coupled to the gas sensor configured to indicate approaching end-of-service-life of the cartridge , and wherein approaching end-of-service-life is indicated when a gas level sensed at a sample point proximate to a rearward end of the cartridge approaches a gas level sensed at a sample point proximate to a forward end of the cartridge . a gas sensor ; first and second sample streams from the cartridge in fluid communication with the gas sensor ; and a two-way valve configured to control the flow from the first and second sample streams to the gas sensor by alternating between a mixture of the first and second sample streams and only the second sample stream , wherein the gas sensor is configured to compare a gas level present in the mixture of the first and second sample streams and a gas level present in the second sample stream ; wherein each of the first and second sample streams samples from sample points within the cartridge and the sample points for the first and second sample streams are located at different depths within the cartridge , the system further comprising an alert coupled to the gas sensor configured to indicate approaching end-of-service-life of the cartridge , and wherein approaching end-of-service-life is indicated when a gas level sensed at a sample point proximate to a rearward end of the cartridge approaches a gas level sensed at a sample point proximate to a forward end of the cartridge .