mhurhangee/ep-ind-claims huggingface dataset:
A system for facilitating smoking of tobacco from a hookah, the system comprising: a heating platform (520, 720) for resting on a bowl operable to contain tobacco or other smokable organic substance, the heating platform (520, 720) comprising a central surface including a depression (522, 722) with at least one surrounding wall such that a heating source will not slide off the central surface, at least one perimeter vent (524, 724) of the platform (520, 720) to allow air to pass between an area above the central surface and below the central surface and a cap (540, 740) with at least one exterior vent, at least one upper vent (572, 750), at least one movement control extension and at least one rest for resting on the heating platform (520, 720) characterized in that the heating platform (520, 720) further comprises: at least one exterior vent located in at least one perimeter wall located around an exterior of the heating platform (520, 720), wherein the at least one exterior vent of the heating platform (520, 720) can be aligned with the at least one exterior vent of the cap (540, 740).
Control device comprising electronic nodes (1a, 1b, 1c) that are connected such that, at least between two electronic end nodes (1a, 1c), each electronic node comprises: - a power supply input for said electronic node to be supplied with power by a preceding electronic node; - a power supply output for a subsequent electronic node; - a member for measuring a physical quantity; - a member for transferring a datum representing the physical quantity measured by said measurement member using, as a transmission vector, the power supply input of said electronic node, characterized in that, at least between two electronic end nodes (1a, 1c), each electronic node further comprises: - a voltage transfer member that is suitable for allowing or preventing the transfer of a supply voltage that is present at the power supply input from the power supply input of said node to the power supply output of said node. - a power supply input for said electronic node to be supplied with power by a preceding electronic node; - a power supply output for a subsequent electronic node; - a member for measuring a physical quantity; - a member for transferring a datum representing the physical quantity measured by said measurement member using, as a transmission vector, the power supply input of said electronic node, characterized in that, at least between two electronic end nodes (1a, 1c), each electronic node further comprises: - a voltage transfer member that is suitable for allowing or preventing the transfer of a supply voltage that is present at the power supply input from the power supply input of said node to the power supply output of said node.
A preparation for the interdental delivery of oral care agents, the preparation comprising one or more oral care agents contained in particles comprising an orally acceptable release matrix, wherein the particles are resiliently deformable and capable of being compressed so as to fit in an interdental space, wherein the particles have a particle size defined by three orthogonally directed dimensions of which a longest dimension is at most 6 mm, a shortest dimension is at least 1 mm, and at least one dimension is in a range of 1.5 to 3 mm.
A recombinant AdB-2/3 fiber polypeptide, comprising: (a) one or more AdB-2/3 fiber polypeptide shaft domain motifs; (b) an AdB-2/3 fiber polypeptide knob domain operatively linked to and located C-terminal to the one or more AdB-2/3 fiber polypeptide shaft domain motifs, wherein the AdB-2/3 fiber polypeptide knob domain comprises the peptide of any one of SEQ ID NOS:1-11, wherein when the AdB-2/3 fiber polypeptide knob domain comprises the peptide of any one of SEQ ID NOS: 1-4, at least one of the following is true: X2 is P; X3 is E; X4 is S, or L; X5 is D; X6 is G; X7 is F; X8 is E; or X9 is S; and (c) one or more non-AdB-2/3-derived dimerization domains operatively linked to and located N-terminal to the one or more AdB-2/3 fiber polypeptide shaft domain motifs. (a) one or more AdB-2/3 fiber polypeptide shaft domain motifs; (b) an AdB-2/3 fiber polypeptide knob domain operatively linked to and located C-terminal to the one or more AdB-2/3 fiber polypeptide shaft domain motifs, wherein the AdB-2/3 fiber polypeptide knob domain comprises the peptide of any one of SEQ ID NOS:1-11, wherein when the AdB-2/3 fiber polypeptide knob domain comprises the peptide of any one of SEQ ID NOS: 1-4, at least one of the following is true: X2 is P; X3 is E; X4 is S, or L; X5 is D; X6 is G; X7 is F; X8 is E; or X9 is S; and X2 is P; X3 is E; X4 is S, or L; X5 is D; X6 is G; X7 is F; X8 is E; or X9 is S; and (c) one or more non-AdB-2/3-derived dimerization domains operatively linked to and located N-terminal to the one or more AdB-2/3 fiber polypeptide shaft domain motifs.
Temperature-stable vacuum insulation element for use over a wide temperature range of high or low temperatures comprising: - a core material of fumed silica in a proportion by weight in the range from 30% to 90%; - a fiber material in a proportion by weight in the range from 1% to 10%; - an opacifying agent in a proportion by weight in the range from 5% to 50%; and - a vacuum-tight cladding of the core material consisting of at least two stainless steel foils (4a, 4b) which are joined by welding. - a core material of fumed silica in a proportion by weight in the range from 30% to 90%; - a fiber material in a proportion by weight in the range from 1% to 10%; - an opacifying agent in a proportion by weight in the range from 5% to 50%; and - a vacuum-tight cladding of the core material consisting of at least two stainless steel foils (4a, 4b) which are joined by welding.
A combine harvester for harvesting a crop on a field, the combine harvester comprising: - a chopping assembly configured to chop a crop residue of the harvested crop, the chopping assembly comprising: - an inlet for receiving the crop residue; - a rotor (130, 240) provided with one or more cutting tools and configured to chop the crop residue; - a drive assembly configured to drive the rotor (130, 240); - an outlet for outputting the chopped crop residue onto the field; - an image based sensor configured to monitor the chopped crop residue, thereby generating a signal representative of a geometric parameter of a geometry of the chopped crop residue; - a processing unit configured to: - receive the signal of the image based sensor and process the signal to derive the geometric parameter therefrom; and characterized in that the image based sensor is mounted at or near the outlet of the chopping assembly and in that the processing unit is further configured to determine a control signal for the drive assembly, based on the geometric parameter. - a chopping assembly configured to chop a crop residue of the harvested crop, the chopping assembly comprising: - an inlet for receiving the crop residue; - a rotor (130, 240) provided with one or more cutting tools and configured to chop the crop residue; - a drive assembly configured to drive the rotor (130, 240); - an outlet for outputting the chopped crop residue onto the field; - an inlet for receiving the crop residue; - a rotor (130, 240) provided with one or more cutting tools and configured to chop the crop residue; - a drive assembly configured to drive the rotor (130, 240); - an outlet for outputting the chopped crop residue onto the field; - an image based sensor configured to monitor the chopped crop residue, thereby generating a signal representative of a geometric parameter of a geometry of the chopped crop residue; - a processing unit configured to: - receive the signal of the image based sensor and process the signal to derive the geometric parameter therefrom; and characterized in that the image based sensor is mounted at or near the outlet of the chopping assembly and in that the processing unit is further configured to determine a control signal for the drive assembly, based on the geometric parameter. - receive the signal of the image based sensor and process the signal to derive the geometric parameter therefrom; and
A method of managing a subscribed notification, the method comprising: obtaining (1102, 1108, 1200, 1224, 1402, 1412, 1416, 1420), by a session management function, SMF, information from a policy control function, PCF, the information being a policy associated with a user plane, UP, selection or reselection notification subscription from an application function, AF; and according to the information, sending (1124, 1128, 1210, 1230, 1236, 1424, 1426), by the SMF, a notification of a UP selection or reselection to the AF, the notification comprising a notification type indicating that the notification is sent before or after a UP path is configured, wherein the notification is sent without involving the PCF. obtaining (1102, 1108, 1200, 1224, 1402, 1412, 1416, 1420), by a session management function, SMF, information from a policy control function, PCF, the information being a policy associated with a user plane, UP, selection or reselection notification subscription from an application function, AF; and according to the information, sending (1124, 1128, 1210, 1230, 1236, 1424, 1426), by the SMF, a notification of a UP selection or reselection to the AF, the notification comprising a notification type indicating that the notification is sent before or after a UP path is configured, wherein the notification is sent without involving the PCF.
A thermal therapy system comprising: a joint conforming wrap including a skin contacting surface, a first chamber housing one or more inflatable members, a second chamber proximate the skin contacting surface, and a plurality of wrap thermoelectric modules positioned within the second chamber, the wrap thermoelectric modules configured to cool and heat and form controllable thermoelectric module zones, the wrap thermoelectric modules having a front side and a back side, the front side of the plurality of thermoelectric modules being in direct thermal contact with the skin contacting surface and the one or more inflatable members being disposed to compress the second chamber and thereby press the skin contacting surface against a patients skin upon inflation of the inflatable members, for provision of thermal therapy from the front side of the wrap thermoelectric modules to the patient's skin through the skin contacting surface; a power supply module for supplying power to said joint conforming wrap; a cable for operably coupling the wrap to the power supply module; and wherein the power supply module comprises a switching function for controlling the wrap thermoelectric modules in a thermoelectric module zone to enable switching between cooling and heating. a joint conforming wrap including a skin contacting surface, a first chamber housing one or more inflatable members, a second chamber proximate the skin contacting surface, and a plurality of wrap thermoelectric modules positioned within the second chamber, the wrap thermoelectric modules configured to cool and heat and form controllable thermoelectric module zones, the wrap thermoelectric modules having a front side and a back side, the front side of the plurality of thermoelectric modules being in direct thermal contact with the skin contacting surface and a front side and a back side, the front side of the plurality of thermoelectric modules being in direct thermal contact with the skin contacting surface and the one or more inflatable members being disposed to compress the second chamber and thereby press the skin contacting surface against a patients skin upon inflation of the inflatable members, for provision of thermal therapy from the front side of the wrap thermoelectric modules to the patient's skin through the skin contacting surface; a power supply module for supplying power to said joint conforming wrap; a cable for operably coupling the wrap to the power supply module; and wherein the power supply module comprises a switching function for controlling the wrap thermoelectric modules in a thermoelectric module zone to enable switching between cooling and heating.
An electroporation ablation system, comprising: a probe configured to be inserted into a body part of a living subject, and comprising a distal end including at least one electrode; a plurality of body-surface patches configured to be applied to a skin surface of the living subject; an ablation power generator configured to be selectively electrically connected to the at least one electrode and at least one of the body-surface patches, and configured to generate at least one first electrical pulse train, and apply the at least one first electrical pulse train between the at least one electrode and at least a first one of the body-surface patches; and a processor configured to: provide a measurement of movement of the living subject responsively to applying the at least one first electrical pulse train between the at least one electrode and the at least first one of the body-surface patches; and select at least a second one of the body-surface patches responsively to the measurement of movement of the living subject, and wherein the ablation power generator is configured to generate at least one second electrical pulse train, and apply the at least one second electrical pulse train between the at least one electrode and the at least second one of the body-surface patches. a probe configured to be inserted into a body part of a living subject, and comprising a distal end including at least one electrode; a plurality of body-surface patches configured to be applied to a skin surface of the living subject; an ablation power generator configured to be selectively electrically connected to the at least one electrode and at least one of the body-surface patches, and configured to generate at least one first electrical pulse train, and apply the at least one first electrical pulse train between the at least one electrode and at least a first one of the body-surface patches; and a processor configured to: provide a measurement of movement of the living subject responsively to applying the at least one first electrical pulse train between the at least one electrode and the at least first one of the body-surface patches; and select at least a second one of the body-surface patches responsively to the measurement of movement of the living subject, and wherein the ablation power generator is configured to generate at least one second electrical pulse train, and apply the at least one second electrical pulse train between the at least one electrode and the at least second one of the body-surface patches. provide a measurement of movement of the living subject responsively to applying the at least one first electrical pulse train between the at least one electrode and the at least first one of the body-surface patches; and select at least a second one of the body-surface patches responsively to the measurement of movement of the living subject, and wherein the ablation power generator is configured to generate at least one second electrical pulse train, and apply the at least one second electrical pulse train between the at least one electrode and the at least second one of the body-surface patches.
A fuel cell system having a fuel cell module including a fuel cell, the fuel cell system comprising: a housing including a high temperature chamber in which the fuel cell module is disposed, and a low temperature chamber in which a gas supply system configured to supply a fuel and an oxidant to the fuel cell module is disposed; and a heat insulating partition wall partitioning a section of the housing to define the high temperature chamber and the low temperature chamber, the heat insulating partition wall formed with supply passages configured to allow supply of the fuel and the oxidant to the fuel cell module by the gas supply system, wherein an end portion of the heat insulating partition wall is in contact with a wall portion forming the housing. a housing including a high temperature chamber in which the fuel cell module is disposed, and a low temperature chamber in which a gas supply system configured to supply a fuel and an oxidant to the fuel cell module is disposed; and a heat insulating partition wall partitioning a section of the housing to define the high temperature chamber and the low temperature chamber, the heat insulating partition wall formed with supply passages configured to allow supply of the fuel and the oxidant to the fuel cell module by the gas supply system, wherein an end portion of the heat insulating partition wall is in contact with a wall portion forming the housing.
Building closure, in particular a skylight, comprising a frame, a sash which is mounted rotatably with respect to the frame, and a sealing means (9, 10) for sealing a gap present between the frame and the sash when the building closure is shut, the sealing means (9, 10) being arranged continuously on a plurality of spars (5, 6) of the frame or of the sash, so as to lie tightly on a sealing face (11, 12), opposite the spars (5, 6), of the sash or of the frame when the building closure is shut, the distance between the frame and the sash in a first gap region of the gap present at a first one of the spars (5, 6) being different from the distance in a second gap region of the gap present at a second one of the spars (5, 6), and the sealing means (9, 10) having the same extension in the direction of the sealing face (11, 12), in particular the same cross section, in the first gap region and the second gap region, characterised in that, to compensate the different distances between the frame and the sash in the gap regions (7, 8), the sealing means (9, 10) is arranged on the spars (5, 6) differently for the first gap region and the second gap region, so as to be arranged identically relative to the sealing face (11, 12).
A user equipment, UE, comprising: a processor configured to receive an extended physical downlink control channel, E-PDCCH, in an E-PDCCH region that has been partitioned into at least two partitions, wherein a first partition contains control channel elements, CCEs, with a first set of aggregation levels, and a second partition contains CCEs with a second set of aggregation levels, wherein, for each partition, the processor is configured to perform blind decodes at regular, predefined intervals of CCEs corresponding to each aggregation level of the respective set of aggregation levels, and to perform the blind decodes in the first partition over a number of CCEs equal to a number of CCEs in the first set of aggregation levels, and to perform the blind decodes in the second partition over a number of CCEs equal to a number of CCEs in the second set of aggregation levels. a processor configured to receive an extended physical downlink control channel, E-PDCCH, in an E-PDCCH region that has been partitioned into at least two partitions, wherein a first partition contains control channel elements, CCEs, with a first set of aggregation levels, and a second partition contains CCEs with a second set of aggregation levels, wherein, for each partition, the processor is configured to perform blind decodes at regular, predefined intervals of CCEs corresponding to each aggregation level of the respective set of aggregation levels, and to perform the blind decodes in the first partition over a number of CCEs equal to a number of CCEs in the first set of aggregation levels, and to perform the blind decodes in the second partition over a number of CCEs equal to a number of CCEs in the second set of aggregation levels.
Volume meter for liquids, having an arithmetic unit, a volume measuring device with a measuring chamber through which a medium can flow, with at least one inflow and at least one outlet, and with a measuring insert which comprises a measuring body rotatably mounted via a shaft and a pulse generator arrangement (40, 48) as well as a receptacle for at least one meter module, wherein an electronic meter board having an interface and having a capture device with at least one transmitting unit and at least one receiving unit is provided, with which the pulse generator arrangement (40, 48) can be scanned and metering pulses proportional to the volume can be captured or generated and stored in a retrievable manner and the respective flow rate or the respective meter reading of the volume meter can therefore be determined, and the meter reading can be retrieved or transmitted via the interface, characterized in that the electronic meter board interacts with a meter module via the interface by virtue of the interface being addressed during or after insertion of the meter module into the volume meter and the respective meter information being retrieved from the electronic meter board by means of the meter module, wherein the serial number or the meter number or the meter type can be retrieved from the electronic meter board and can be transmitted to the inserted meter module.
A system for medical device detection, comprising: a guidance system configured to deliver a surgical device into a subj ect; a surgical device deployment detector (24, 25, 42, 44, 40) configured to cooperate with the guidance system and configured to detect a deployment of the surgical device in the subject, comprising a vibration and/or motion detector mounted on the guidance system and configured to monitor vibration and/or sudden motion from the guidance system (38, 48), and the surgical device deployment detector includes a spatial tracking system configured to determine a location of the surgical device during delivery thereof into a subject; and a coordination module configured to receive input from the guidance system and at least one input from the deployment detector to coordinate the inputs to determine and record of both location and time of each deployment. a guidance system configured to deliver a surgical device into a subj ect; a surgical device deployment detector (24, 25, 42, 44, 40) configured to cooperate with the guidance system and configured to detect a deployment of the surgical device in the subject, comprising a vibration and/or motion detector mounted on the guidance system and configured to monitor vibration and/or sudden motion from the guidance system (38, 48), and the surgical device deployment detector includes a spatial tracking system configured to determine a location of the surgical device during delivery thereof into a subject; and a coordination module configured to receive input from the guidance system and at least one input from the deployment detector to coordinate the inputs to determine and record of both location and time of each deployment.
An airfoil comprising: an airfoil body including an external wall structure and an internal wall structure, wherein the airfoil body defines: a plurality of skin chambers (111, 112, 112A); a plurality of skin chamber outlet openings; and a tip flag chamber, wherein the skin chambers (111, 112, 112A) are in fluidic communication with the tip flag chamber via the skin chamber outlet openings, a central chamber, wherein the skin chambers (111, 112, 112A) are disposed around the central chamber; wherein the skin chambers (111, 112, 112A) comprise flow passages that are at least partially defined by the external wall structure and the central chamber is entirely defined by the internal wall structure. a plurality of skin chambers (111, 112, 112A); a plurality of skin chamber outlet openings; and a tip flag chamber, wherein the skin chambers (111, 112, 112A) are in fluidic communication with the tip flag chamber via the skin chamber outlet openings, a central chamber, wherein the skin chambers (111, 112, 112A) are disposed around the central chamber; wherein the skin chambers (111, 112, 112A) comprise flow passages that are at least partially defined by the external wall structure and the central chamber is entirely defined by the internal wall structure.