mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol generation device comprising: a main body defined by a main housing comprising a heating unit for heating an aerosol generation substrate and accommodated within the main housing ; a cover element that is detachably attached or connected to the main housing and covers a portion of the main housing to form part of the exterior surface of the main housing : wherein the main housing and the cover element are shaped such that an air gap is formed between the main housing and the cover element , characterized in that in that the cover elemen comprises a discrete set of different thicknesses and/or a continuous spectrum of different thicknesses, in a way such that some sections of the cover element that are arranged closer to the heating unit and the main housing have a larger air gap distance between the cover element and the heating unit , and some sections of the cover elemen that are arranged further away from the heating unit and the main housing have a smaller air gap distance between the cover element and the heating unit . a main body defined by a main housing comprising a heating unit for heating an aerosol generation substrate and accommodated within the main housing ; a cover element that is detachably attached or connected to the main housing and covers a portion of the main housing to form part of the exterior surface of the main housing : wherein the main housing and the cover element are shaped such that an air gap is formed between the main housing and the cover element , characterized in that in that the cover elemen comprises a discrete set of different thicknesses and/or a continuous spectrum of different thicknesses, in a way such that some sections of the cover element that are arranged closer to the heating unit and the main housing have a larger air gap distance between the cover element and the heating unit , and some sections of the cover elemen that are arranged further away from the heating unit and the main housing have a smaller air gap distance between the cover element and the heating unit .
A sintered zirconia mullite refractory composite based on aluminosilicate, alumina and zircon sand, having the following chemical composition, in weight-percent: - 55% to 65% Al 2 O 3 ; - 15% to 25% SiO 2 ; - 15% to 25% ZrO 2 ; and - less than 3% raw material-caused impurities, characterised in that the zirconia mullite refractory composite has a mineralogical composition comprising 65 wt.-% to 85 wt.-% mullite and 15 wt.-% to 35 wt.-% zirconia, wherein the aluminosilicate comprises andalusite, kyanite, and/or sillimanite, and wherein the raw material basis of the composite comprises - 25 wt.-% to 35 wt.-% andalusite; - 35 wt.-% to 45 wt.-% alumina; and - 25 wt.-% to 35 wt.-% zircon sand. - 55% to 65% Al 2 O 3 ; - 15% to 25% SiO 2 ; - 15% to 25% ZrO 2 ; and - less than 3% raw material-caused impurities, characterised in that the zirconia mullite refractory composite has a mineralogical composition comprising 65 wt.-% to 85 wt.-% mullite and 15 wt.-% to 35 wt.-% zirconia, wherein the aluminosilicate comprises andalusite, kyanite, and/or sillimanite, and wherein the raw material basis of the composite comprises - 25 wt.-% to 35 wt.-% andalusite; - 35 wt.-% to 45 wt.-% alumina; and - 25 wt.-% to 35 wt.-% zircon sand.
A lock cylinder with a core rotatable in a housing and with a lock bit with a lock channel arranged in the core for introducing a key and with a coupling slide optionally generating or releasing a positive locking of the lock bit in relation to the core , wherein the coupling slide for releasing or generating the positive locking is guided radially displaceably in the core , and wherein the radial direction of movement of the coupling slide extends in the direction of the longest radial extension of the lock channel , characterized in that a key receptacle of the coupling slide has a key receptacle bevel for the radial movement of the coupling slide when the key is introduced into the lock channel .
A method of wireless communication, comprising: generating , by a user equipment, UE, a mapped Evolved Packet System, EPS, security context associated with an intersystem change of the UE from a wireless system to an EPS, wherein the mapped EPS security context comprises security parameters created based on a security context used for the wireless system, the security parameters enabling security-related communications between the UE and a network entity; setting an uplink, UL, non-access stratum, NAS, COUNT value for the mapped EPS security context to a UL NAS COUNT value of the security context; setting a downlink, DL, NAS COUNT value for the mapped EPS security context to a DL NAS COUNT value of the security context; and transmitting , by the UE, a NAS message to the network entity, the NAS message including the UL NAS COUNT value of the mapped EPS security context. generating , by a user equipment, UE, a mapped Evolved Packet System, EPS, security context associated with an intersystem change of the UE from a wireless system to an EPS, wherein the mapped EPS security context comprises security parameters created based on a security context used for the wireless system, the security parameters enabling security-related communications between the UE and a network entity; setting an uplink, UL, non-access stratum, NAS, COUNT value for the mapped EPS security context to a UL NAS COUNT value of the security context; setting a downlink, DL, NAS COUNT value for the mapped EPS security context to a DL NAS COUNT value of the security context; and transmitting , by the UE, a NAS message to the network entity, the NAS message including the UL NAS COUNT value of the mapped EPS security context.
A negative pressure wound therapy dressing comprising a drainage tube , wherein the drainage tube comprises a tube knitted or braided from a monofilament yarn characterized in that the tube knitted or braided from a monofilament yarn is surrounded by an impermeable sheath.
A method for determining an optimal input resource parameter for an input resource necessary for a print product to be produced by a production line including a printer and a finisher , the method comprising the steps of: receiving (S10) input data indicating a print product to be produced by a production line including a printer and a finisher ; providing (S20) a production line simulation model capable of simulating all actions to be performed by the production line in order to produce the print product from at least one input resource in at least one sequence of actions; performing (S30) a simulation of each of the at least one sequence of actions in reverse order, starting from a last action necessary to finish the print product according to each sequence and going on until a first action applied to the at least one input resource according to each sequence; generating (S40) a recommendation signal comprising a written or visual recommendation regarding an optimal input resource parameter of at least one of the at least one input resource based on the performed simulations; and displaying the written or visual recommendation on a display device controlled by the recommendation signal, wherein the method comprises the step of, during the performance (S30) of the simulation, tracking at least one quantity of input resource waste, the resource waste being an amount of medium waste and/or an amount of ink waste due to cutting and trimming actions, and wherein the recommendation regarding the optimal input resource parameter is based on at least one of the at least one tracked quantity. receiving (S10) input data indicating a print product to be produced by a production line including a printer and a finisher ; providing (S20) a production line simulation model capable of simulating all actions to be performed by the production line in order to produce the print product from at least one input resource in at least one sequence of actions; performing (S30) a simulation of each of the at least one sequence of actions in reverse order, starting from a last action necessary to finish the print product according to each sequence and going on until a first action applied to the at least one input resource according to each sequence; generating (S40) a recommendation signal comprising a written or visual recommendation regarding an optimal input resource parameter of at least one of the at least one input resource based on the performed simulations; and displaying the written or visual recommendation on a display device controlled by the recommendation signal, wherein the method comprises the step of, during the performance (S30) of the simulation, tracking at least one quantity of input resource waste, the resource waste being an amount of medium waste and/or an amount of ink waste due to cutting and trimming actions, and wherein the recommendation regarding the optimal input resource parameter is based on at least one of the at least one tracked quantity.
A fluid connector assembly for connecting to a disposable housing assembly of an infusion pump assembly, the fluid connector assembly comprising: a tab portion comprising a slot ; a plug portion for insertion into an exit of the disposable housing assembly, the plug portion slidably connected to the tab portion such that the plug portion can slide within the tab portion, the plug portion comprising a disc , the disc configured to seat within the slot to control movement of the plug portion with respect to the tab portion; wherein the plug portion further comprises a fluid path; a catch feature located on a first end of the tab portion and configured to interact with the disposable housing assembly ; and a latching feature located on a second end of the tab portion, the latching feature configured to interact and lock onto the disposable housing assembly, wherein the disc is seated in the slot such that when a force applied to the plug portion exceeds a threshold force the disc is unseated from the slot wherein the plug portion slides from an initial position in which the disc is seated in the slot to a position in which the disc is unseated from the slot. a tab portion comprising a slot ; a plug portion for insertion into an exit of the disposable housing assembly, the plug portion slidably connected to the tab portion such that the plug portion can slide within the tab portion, the plug portion comprising a disc , the disc configured to seat within the slot to control movement of the plug portion with respect to the tab portion; wherein the plug portion further comprises a fluid path; a catch feature located on a first end of the tab portion and configured to interact with the disposable housing assembly ; and a latching feature located on a second end of the tab portion, the latching feature configured to interact and lock onto the disposable housing assembly, wherein the disc is seated in the slot such that when a force applied to the plug portion exceeds a threshold force the disc is unseated from the slot wherein the plug portion slides from an initial position in which the disc is seated in the slot to a position in which the disc is unseated from the slot.
A signal management circuit , comprising: a first input terminal to receive a reset condition indication signal (IN); a first logic portion coupled to the first input terminal and configured to provide a first output signal (A); a second logic portion coupled to receive a second signal (INDB) and configured to provide a second output signal (B), the second signal based on a logical combination of the first output signal and the reset condition indication signal; a second input terminal coupled to the second logic portion to receive a test signal (ENABLE) corresponding to a test mode, and an output terminal coupled to provide a third output signal (OUT) based on a logical combination of the first output signal and the second output signal; wherein the first logic portion and the second logic portion are configured to:when the test signal is at a first state, transition the third output signal to a first state responsive to receiving a first edge of the reset condition indication signal, and when the test signal is at a second state, delay transition of the third output signal to the first state responsive to receiving a first edge until after receiving a second edge of the reset condition indication signal. a first input terminal to receive a reset condition indication signal (IN); a first logic portion coupled to the first input terminal and configured to provide a first output signal (A); a second logic portion coupled to receive a second signal (INDB) and configured to provide a second output signal (B), the second signal based on a logical combination of the first output signal and the reset condition indication signal; a second input terminal coupled to the second logic portion to receive a test signal (ENABLE) corresponding to a test mode, and an output terminal coupled to provide a third output signal (OUT) based on a logical combination of the first output signal and the second output signal; wherein the first logic portion and the second logic portion are configured to:when the test signal is at a first state, transition the third output signal to a first state responsive to receiving a first edge of the reset condition indication signal, and when the test signal is at a second state, delay transition of the third output signal to the first state responsive to receiving a first edge until after receiving a second edge of the reset condition indication signal.
Device for supplying power to an electrical system of a motor vehicle comprising a first and a second battery and a DC voltage converter comprising a first terminal linked to the first battery and a second terminal linked to the second battery , the second terminal also being intended to be connected to the electrical system , wherein the DC voltage converter is configured to create a current source arranged in series between the first and the second battery so as to control the current exchanged with the first battery ; and wherein the DC voltage converter comprises: - an inductor arranged in series with the first and the second battery; - a rectifier , arranged in series with the inductor , configured to rectify an AC voltage so as to deliver a voltage controlling the current flowing through the inductor ; - an inverter configured to deliver an AC voltage to said rectifier from a voltage source, termed power supply source of the inverter; - a transformer comprising a first primary winding (e1), the ends of which are linked to the output of the inverter , and a secondary winding (e2), the ends of which are linked to the input of the rectifier . - an inductor arranged in series with the first and the second battery; - a rectifier , arranged in series with the inductor , configured to rectify an AC voltage so as to deliver a voltage controlling the current flowing through the inductor ; - an inverter configured to deliver an AC voltage to said rectifier from a voltage source, termed power supply source of the inverter; - a transformer comprising a first primary winding (e1), the ends of which are linked to the output of the inverter , and a secondary winding (e2), the ends of which are linked to the input of the rectifier .
Method for managing a rules application policy in a virtualized communication network comprising virtualized functions, referred to as service functions (SF), said management method comprising the following steps implemented by an SDN controller of said network: • generating (S1), from a set of rules describing said policy, referred to as a model (M), an encapsulation header comprising a context header for transporting metadata relating to a path and able to be shared by at least one of said service functions SF (SFi) and at least one local application policy context associated with at least one of said service functions (SFi), said at least one local context comprising at least one definition of at least one action to be carried out by said at least one of said service functions (SFi); • transmitting (S2) said at least one local context to said at least one service function (SFi); • transmitting (S3) said encapsulation header to at least one packet router, referred to as a classifier (SCL) . • generating (S1), from a set of rules describing said policy, referred to as a model (M), an encapsulation header comprising a context header for transporting metadata relating to a path and able to be shared by at least one of said service functions SF (SFi) and at least one local application policy context associated with at least one of said service functions (SFi), said at least one local context comprising at least one definition of at least one action to be carried out by said at least one of said service functions (SFi); • transmitting (S2) said at least one local context to said at least one service function (SFi); • transmitting (S3) said encapsulation header to at least one packet router, referred to as a classifier (SCL) .
A liquid radiation curable composition for additive fabrication comprising: (a) a cationically polymerizable aliphatic epoxide; (b) a multifunctional (meth)acrylate component; (c) a cationic photoinitiator; (d) a free-radical photoinitiator; and (e) a filled matrix comprising a nanoparticle constituent comprising a plurality of inorganic nanoparticles having a mean particle size determined as described in description of from between 1 nm to 999 nm, and a microparticle constituent comprising a plurality of inorganic microparticles having a mean particle size determined as described in description of from between 1 micrometer to 999 μm; wherein the ratio by weight of the microparticle constituent to the nanoparticle constituent is from 1 : 1 to 12 : 1, preferably from about 4 : 1 to about 8 : 1, and wherein the ratio of the average particle size of the inorganic microparticles in the microparticle constituent to the average particle size of the inorganic nanoparticles in the nanoparticle constituent is from 6.46 : 1 to 100 : 1. (a) a cationically polymerizable aliphatic epoxide; (b) a multifunctional (meth)acrylate component; (c) a cationic photoinitiator; (d) a free-radical photoinitiator; and (e) a filled matrix comprising a nanoparticle constituent comprising a plurality of inorganic nanoparticles having a mean particle size determined as described in description of from between 1 nm to 999 nm, and a microparticle constituent comprising a plurality of inorganic microparticles having a mean particle size determined as described in description of from between 1 micrometer to 999 μm; a nanoparticle constituent comprising a plurality of inorganic nanoparticles having a mean particle size determined as described in description of from between 1 nm to 999 nm, and a microparticle constituent comprising a plurality of inorganic microparticles having a mean particle size determined as described in description of from between 1 micrometer to 999 μm;
A method for controlling a multi-channel maximum power point tracking MPPT inverter, comprising: receiving (S110) detection parameters of the multi-channel MPPT inverter; determining (S120) whether each of DC-DC converters in the multi-channel MPPT inverter is in an operating state based on the detection parameters; determining (S130) whether an overall input level of the multi-channel MPPT inverter meets a preset condition for operating under a high input voltage mode based on the detection parameters in a case that each of the DC-DC converters is in the operating state, wherein the overall input level of the multi-channel MPPT inverter is a parameter characterizing a state of all input voltages of the multi-channel MPPT inverter; and turning off (S140) each of the DC-DC converters, and controlling a DC-AC converter in the multi-channel MPPT inverter to perform an MPPT algorithm, in a case that the overall input level of the multi-channel MPPT inverter meets the preset condition for operating under the high input voltage mode; characterized in that , the detection parameters comprise: a voltage of a power grid, a DC bus voltage of the multi-channel MPPT inverter, and an input voltage of each of the DC-DC converters, an MPPT algorithm command voltage and an operation state of each of the DC-DC converters in the multi-channel MPPT inverter. receiving (S110) detection parameters of the multi-channel MPPT inverter; determining (S120) whether each of DC-DC converters in the multi-channel MPPT inverter is in an operating state based on the detection parameters; determining (S130) whether an overall input level of the multi-channel MPPT inverter meets a preset condition for operating under a high input voltage mode based on the detection parameters in a case that each of the DC-DC converters is in the operating state, wherein the overall input level of the multi-channel MPPT inverter is a parameter characterizing a state of all input voltages of the multi-channel MPPT inverter; and turning off (S140) each of the DC-DC converters, and controlling a DC-AC converter in the multi-channel MPPT inverter to perform an MPPT algorithm, in a case that the overall input level of the multi-channel MPPT inverter meets the preset condition for operating under the high input voltage mode; characterized in that , the detection parameters comprise: a voltage of a power grid, a DC bus voltage of the multi-channel MPPT inverter, and an input voltage of each of the DC-DC converters, an MPPT algorithm command voltage and an operation state of each of the DC-DC converters in the multi-channel MPPT inverter.