mhurhangee/patent-ind-claim-en huggingface dataset:
A therapy device for instillation of fluid to a tissue site, comprising: a base having a cartridge receptacle; a support coupled to the base to secure the base to a pole; a solution cartridge comprising: a body forming at least a portion of a fluid reservoir ; and a tube segment coupled to the body and in fluid communication with the fluid reservoir , the tube segment configured to engage a pump head of a therapy device for movement of fluid from the fluid reservoir , a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir , wherein the cartridge is configured to engage the base when positioned in the cartridge receptacle; a sensor coupled to the base and configured to communicatively couple to the load cell segment if the cartridge is disposed in the cartridge receptacle; a pump head disposed within the cartridge receptacle and configured to engage the cartridge for movement of fluid, wherein fluid flow through the load cell segment exerts a force on the load cell segment that generates a corresponding signal in the sensor , and the therapy device determines if there is fluid in the fluid reservoir . a base having a cartridge receptacle; a support coupled to the base to secure the base to a pole; a solution cartridge comprising: a body forming at least a portion of a fluid reservoir ; and a tube segment coupled to the body and in fluid communication with the fluid reservoir , the tube segment configured to engage a pump head of a therapy device for movement of fluid from the fluid reservoir , a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir , a body forming at least a portion of a fluid reservoir ; and a tube segment coupled to the body and in fluid communication with the fluid reservoir , the tube segment configured to engage a pump head of a therapy device for movement of fluid from the fluid reservoir , a load cell segment fluidly coupled to the tube segment between the tube segment and the fluid reservoir , wherein the cartridge is configured to engage the base when positioned in the cartridge receptacle; a sensor coupled to the base and configured to communicatively couple to the load cell segment if the cartridge is disposed in the cartridge receptacle; a pump head disposed within the cartridge receptacle and configured to engage the cartridge for movement of fluid, wherein fluid flow through the load cell segment exerts a force on the load cell segment that generates a corresponding signal in the sensor , and the therapy device determines if there is fluid in the fluid reservoir .
Method for producing artificial snow, wherein water is taken from a reservoir for water and fed to a first circuit comprising at least one snow producer , in particular a snow lance, for making snow at a winter sports location , in particular a ski slope , the water in the reservoir being cooled, comprising the steps of - Supplying water to a second circuit comprising at least one or more second snow producers , in particular snow lances, - generating snow with the second circuit , characterized by the step of - supplying the snow generated with the second circuit to the reservoir , said second snow producers being arranged in such a way that, for feeding said snow produced with said second circuit , a surface of said reservoir is directly snowed, or wherein the second snow producers are arranged in such a way that the snow produced with the second circuit is temporarily stored in a depot before being fed to the reservoir . water is taken from a reservoir for water and fed to a first circuit comprising at least one snow producer , in particular a snow lance, for making snow at a winter sports location , in particular a ski slope , the water in the reservoir being cooled, comprising the steps of - Supplying water to a second circuit comprising at least one or more second snow producers , in particular snow lances, - generating snow with the second circuit , characterized by the step of - supplying the snow generated with the second circuit to the reservoir , - Supplying water to a second circuit comprising at least one or more second snow producers , in particular snow lances, - generating snow with the second circuit , characterized by the step of - supplying the snow generated with the second circuit to the reservoir , said second snow producers being arranged in such a way that, for feeding said snow produced with said second circuit , a surface of said reservoir is directly snowed, or wherein the second snow producers are arranged in such a way that the snow produced with the second circuit is temporarily stored in a depot before being fed to the reservoir .
A system to detonate an explosive, comprising: at least one blasting cap ; a shock tube adapter ; a shock tube having one end connected to the at least one blasting cap and another end connected to the shock tube adapter ; at least one percussion cap inserted into the shock tube adapter ; detonating cord ; a priming well configured to receive the at least one blasting cap and a section of the detonating cord such that insertion of the at least one blasting cap into the priming well and insertion of the section of the detonating cord into the priming well places the inserted at least one blasting cap in overlapping proximity to the inserted section of the detonating cord such that initiation of the at least one blasting cap will initiate detonation of the detonating cord ; and a firing device that receives the shock tube adapter and comprising a firing pin that when fired is configured to initiate the percussion cap inserted into the shock tube adapter that is inserted into the firing device . at least one blasting cap ; a shock tube adapter ; a shock tube having one end connected to the at least one blasting cap and another end connected to the shock tube adapter ; at least one percussion cap inserted into the shock tube adapter ; detonating cord ; a priming well configured to receive the at least one blasting cap and a section of the detonating cord such that insertion of the at least one blasting cap into the priming well and insertion of the section of the detonating cord into the priming well places the inserted at least one blasting cap in overlapping proximity to the inserted section of the detonating cord such that initiation of the at least one blasting cap will initiate detonation of the detonating cord ; and a firing device that receives the shock tube adapter and comprising a firing pin that when fired is configured to initiate the percussion cap inserted into the shock tube adapter that is inserted into the firing device .
A method for detecting the state, in particular the availability, of a participant (2.0-2.n) of a communication bus , which can assume a dominant or a recessive state, having the following method steps: - a first participant , in particular a master participant, of the communication bus sends a state detection message via the communication bus , wherein the state detection message comprises a data area , wherein the data area has at least one participant bit (B1.0-B1.7), which is assigned to a second participant (2.0-2.n) of the communication bus , and the at least one participant bit (B1.0-B1.7) is set to the recessive state, - a second participant (2.0-2.n) of the communication bus receives the state detection message and sets the at least one participant bit (B1.0-B1.7), which is assigned to the second participant (2.0-2.n), to the dominant state while the second participant (2.0-2.n) receives the state detection message , - the first participant and/or a third participant (3.0-3.n) of the communication bus receives the state detection message and determines the state of the second participant (2.0-2.n) based on the participant bit (B1.0-B1.7), characterised in that - the state detection message comprises a check word , in particular an LRC word, and the first participant receives the participant bit (B1.0-B1.7) set by the second participant (2.0-2.n) and sets the check word depending on the received participant bit (B1.0-B1.7). - a first participant , in particular a master participant, of the communication bus sends a state detection message via the communication bus , wherein the state detection message comprises a data area , wherein the data area has at least one participant bit (B1.0-B1.7), which is assigned to a second participant (2.0-2.n) of the communication bus , and the at least one participant bit (B1.0-B1.7) is set to the recessive state, - a second participant (2.0-2.n) of the communication bus receives the state detection message and sets the at least one participant bit (B1.0-B1.7), which is assigned to the second participant (2.0-2.n), to the dominant state while the second participant (2.0-2.n) receives the state detection message , - the first participant and/or a third participant (3.0-3.n) of the communication bus receives the state detection message and determines the state of the second participant (2.0-2.n) based on the participant bit (B1.0-B1.7), characterised in that - the state detection message comprises a check word , in particular an LRC word, and the first participant receives the participant bit (B1.0-B1.7) set by the second participant (2.0-2.n) and sets the check word depending on the received participant bit (B1.0-B1.7).
A downhole completion method, comprising: deploying a downhole system into a wellbore , wherein the downhole system includes a completion system and an activator tool mounted within the completion system such that the completion system and the activator tool are deployed into the wellbore simultaneously, the completion system disposed on tubing , the activator tool operatively associated with a tubular string located in the tubing , the activator tool and the completion system arranged so that, on deploying the activator tool and the completion system downhole, the activator tool is located downhole from at least a portion of the completion system ; and withdrawing the activator tool from the completion system using the tubular string operatively associated with the activator tool to operate at least a portion of the completion system , wherein performance of a first operation of a downhole tool (1006;1008) of the completion system by pulling the activator tool uphole activates a lock provided on at least one of the downhole tool and the activator tool to restrict performance of a second operation of the downhole tool (1006;1008), and wherein changing the configuration of at least one of the activator tool and the downhole tool (1006;1008) deactivates the lock. deploying a downhole system into a wellbore , wherein the downhole system includes a completion system and an activator tool mounted within the completion system such that the completion system and the activator tool are deployed into the wellbore simultaneously, the completion system disposed on tubing , the activator tool operatively associated with a tubular string located in the tubing , the activator tool and the completion system arranged so that, on deploying the activator tool and the completion system downhole, the activator tool is located downhole from at least a portion of the completion system ; and withdrawing the activator tool from the completion system using the tubular string operatively associated with the activator tool to operate at least a portion of the completion system ,
A vehicle control system mounted on a vehicle ; the system being configured to; detect an object external to the vehicle , determine a speed distribution area which defines a distribution of an allowable upper limit (V lim ) of a relative speed of the vehicle with respect to the object in a travelling direction of the vehicle , in a range from a lateral area to a rearward area and from the lateral area to a forward area of the object in the travelling direction of the vehicle , determine respective speed distribution area for respective objects when a plurality of objects are detected, and execute an avoidance control for restricting the relative speed of the vehicle for respective objects from exceeding the allowable upper limits (V lim ) defined by the plurality of speed distribution areas for the plurality of objects . detect an object external to the vehicle , determine a speed distribution area which defines a distribution of an allowable upper limit (V lim ) of a relative speed of the vehicle with respect to the object in a travelling direction of the vehicle , in a range from a lateral area to a rearward area and from the lateral area to a forward area of the object in the travelling direction of the vehicle , determine respective speed distribution area for respective objects when a plurality of objects are detected, and execute an avoidance control for restricting the relative speed of the vehicle for respective objects from exceeding the allowable upper limits (V lim ) defined by the plurality of speed distribution areas for the plurality of objects .
An evaporator assembly for an ice-making apparatus, comprising: a vertical, substantially flat freeze surface ; a refrigerant circuit ; and a freeze template thermally coupled between the freeze surface and the refrigerant circuit, and formed of a plurality of regions arranged in a plane and interconnected by strips having a smaller dimension in the plane than the regions, wherein interface locations between the freeze template and the freeze surface define where on the freeze surface ice pieces are to be formed and characterized in that the interface locations further define on the freeze surface a webbing with ice strips between the ice pieces. a vertical, substantially flat freeze surface ; a refrigerant circuit ; and a freeze template thermally coupled between the freeze surface and the refrigerant circuit, and formed of a plurality of regions arranged in a plane and interconnected by strips having a smaller dimension in the plane than the regions, wherein interface locations between the freeze template and the freeze surface define where on the freeze surface ice pieces are to be formed and characterized in that the interface locations further define on the freeze surface a webbing with ice strips between the ice pieces.
A method for providing depth perception to a two-dimensional representation of a given three-dimensional object within a 2D non-visible spectrum image of a scene, the method comprising: capturing the 2D non-visible spectrum image at a capture time, by at least one non-visible spectrum sensor ; obtaining 3D data regarding the given 3D object independently of the 2D non-visible spectrum image; generating one or more depth cues based on the 3D data and a position and orientation of the non-visible spectrum sensor at the capture time; applying the depth cues on the 2D representation to generate a depth perception image that provides the depth perception to the 2D representation; and displaying the depth perception image. capturing the 2D non-visible spectrum image at a capture time, by at least one non-visible spectrum sensor ; obtaining 3D data regarding the given 3D object independently of the 2D non-visible spectrum image; generating one or more depth cues based on the 3D data and a position and orientation of the non-visible spectrum sensor at the capture time; applying the depth cues on the 2D representation to generate a depth perception image that provides the depth perception to the 2D representation; and displaying the depth perception image.
Nail-tight sealing membrane, in particular under-roof membrane or façade membrane, comprising, in this order, a first nonwoven layer , a membrane layer and a second nonwoven layer , the first nonwoven layer comprising polypropylene fibers and the second nonwoven layer comprising polypropylene fibers and the membrane layer being formed on the basis of a thermoplastic elastomer, the second nonwoven layer having a weight per unit area of between 40 g/m 2 and 200 g/m 2 , and the first nonwoven layer has a weight per unit area of between 60 g/m 2 and 200 g/m 2 , characterized in that the sealing membrane comprises the first nonwoven layer , the membrane layer and the second nonwoven layer , the first nonwoven layer optionally being bonded to the membrane layer via an adhesive layer and/or the membrane layer optionally being bonded to the second nonwoven layer via an adhesive layer .
A process to form an ethylene-based polymer, said process comprising at least the following; polymerizing ethylene in the presence of a metal complex selected from Structure II below: wherein R is a (C1-C8) alkyl group; and wherein the polymerization takes place at a polymerization temperature greater than, or equal to, 160 °C polymerizing ethylene in the presence of a metal complex selected from Structure II below: wherein R is a (C1-C8) alkyl group; and wherein the polymerization takes place at a polymerization temperature greater than, or equal to, 160 °C
A surgical instrument, comprising: a displacement member configured to translate within the surgical instrument over a plurality of predefined zones; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor the position of the displacement member; a timer circuit coupled to the control circuit, the timer circuit configured to measure elapsed time; wherein the control circuit is configured to: receive, from the position sensor, a position of the displacement member in a current zone defined by a predetermined displacement interval; measure time as the displacement member moves from a parked position to a target position ; wherein an initial zone is defined as the distance traveled by the displacement member from the parked position to the target position; wherein the control circuit is configured to: compare the measured time to a predetermined time stored in a memory coupled to the control circuit and set a command velocity of the displacement member for a first zone subsequent to the initial zone based on the comparison between the measured time and the predetermined time. a displacement member configured to translate within the surgical instrument over a plurality of predefined zones; a motor coupled to the displacement member to translate the displacement member; a control circuit coupled to the motor; a position sensor coupled to the control circuit, the position sensor configured to monitor the position of the displacement member; a timer circuit coupled to the control circuit, the timer circuit configured to measure elapsed time; wherein the control circuit is configured to: receive, from the position sensor, a position of the displacement member in a current zone defined by a predetermined displacement interval; measure time as the displacement member moves from a parked position receive, from the position sensor, a position of the displacement member in a current zone defined by a predetermined displacement interval; measure time as the displacement member moves from a parked position to a target position ;
Pigmented aqueous basecoat material comprising an aqueous polyurethane-polyurea dispersion (PD) having polyurethane-polyurea particles present in the dispersion, having an average particle size (volume average) of 40 to 2000 nm, measured as described in the description, and having a gel fraction of at least 50 wt%, measured as described in the description, the polyurethane-polyurea particles, in each case in reacted form, comprising (Z.1.1) at least one polyurethane prepolymer containing isocyanate groups and comprising anionic groups and/or groups which can be converted into anionic groups, and also (Z.1.2) at least one polyamine comprising two primary amino groups and one or two secondary amino groups, characterized in that the aqueous basecoat material, based on the total amount of solvents (L) present in the basecoat material, contains in total less than 9 wt% of solvents selected from the group consisting of solvents (L1) having an HLB of between 5 and 15 and a water solubility of > 1.5 wt% at 20°C, measured as described in the description, the HLB of a solvent (L) being defined as follows: HLB L = 20 * 1 − M lipophilic fraction of L / M L , the lipophilic fraction of a solvent (L) being made up of the following carbon-containing groups: every group CH n with n = 1 to 3, provided that the group (i) is not in alpha position to OH, NH 2 , CO 2 H, (ii) is not in ethylene oxide units which are in an ethylene oxide chain having a terminal OH group, and/or (iii) is not in a cyclic molecule or molecular moiety in alpha position to a bridging functional group selected from -O-, NH-. (i) is not in alpha position to OH, NH 2 , CO 2 H, (ii) is not in ethylene oxide units which are in an ethylene oxide chain having a terminal OH group, and/or (iii) is not in a cyclic molecule or molecular moiety in alpha position to a bridging functional group selected from -O-, NH-.
A method for performing antenna training by a first wireless device with a second wireless network device, comprising: performing operations in the first wireless network device, the operations comprising: directionally transmitting , within a first sector, a first transmission including a first sector number identifying the first sector; directionally transmitting , within a second sector, a second transmission including a second sector number identifying the second sector; wherein the first and second transmissions comprise discovery beacons and omnidirectionally receiving a response to the first or the second transmission from the second wireless network device, the response including the first or the second sector number, the response further including a third sector number identifying a third sector used by the second wireless network device to transmit the response; and directionally transmitting information to the second wireless network device using the first or second sector, the information including the third sector number. performing operations in the first wireless network device, the operations comprising: directionally transmitting , within a first sector, a first transmission including a first sector number identifying the first sector; directionally transmitting , within a second sector, a second transmission including a second sector number identifying the second sector; directionally transmitting , within a first sector, a first transmission including a first sector number identifying the first sector; directionally transmitting , within a second sector, a second transmission including a second sector number identifying the second sector; wherein the first and second transmissions comprise discovery beacons and omnidirectionally receiving a response to the first or the second transmission from the second wireless network device, the response including the first or the second sector number, the response further including a third sector number identifying a third sector used by the second wireless network device to transmit the response; and directionally transmitting information to the second wireless network device using the first or second sector, the information including the third sector number. omnidirectionally receiving a response to the first or the second transmission from the second wireless network device, the response including the first or the second sector number, the response further including a third sector number identifying a third sector used by the second wireless network device to transmit the response; and directionally transmitting information to the second wireless network device using the first or second sector, the information including the third sector number.