mhurhangee/patent-ind-claim-en huggingface dataset:
An inhaler for inhalation of an inhalable dry powder, the inhaler comprising:- (a) an outer shell comprising a first shell part and a second shell part ; (b) a capsule holder comprising a chamber for holding a capsule, a capsule breaker for breaking open a capsule held within the chamber and a trigger for causing the capsule breaker to break open a capsule; (c) a support for supporting the capsule holder ; and (d) an outlet for passage of dry powder from the capsule into a user, wherein the capsule holder is positioned in the first shell part , wherein the first shell part comprises an aperture through which the trigger protrudes, wherein the aperture comprises a cut-out in the rim of the first shell part and through which the trigger may pass when the capsule holder is removed from the first shell part , and wherein the support comprises one or more first mating parts for mating with one or more second mating parts on the first shell part , said first and second mating parts preventing outward movement of the walls of the first shell part when said first and second mating parts are mutually engaged, wherein the one or more first mating parts comprise one or more male mating parts and the one or more second mating parts comprise one or more female mating parts, characterized in that the one or more female mating parts are formed in a thickened part of the outer wall of the first shell part wherein the thickened part of the outer wall at least partially surrounds the cut-out and/or the aperture . (a) an outer shell comprising a first shell part and a second shell part ; (b) a capsule holder comprising a chamber for holding a capsule, a capsule breaker for breaking open a capsule held within the chamber and a trigger for causing the capsule breaker to break open a capsule; (c) a support for supporting the capsule holder ; and (d) an outlet for passage of dry powder from the capsule into a user, wherein the capsule holder is positioned in the first shell part , wherein the first shell part comprises an aperture through which the trigger protrudes, wherein the aperture comprises a cut-out in the rim of the first shell part and through which the trigger may pass when the capsule holder is removed from the first shell part , and wherein the support comprises one or more first mating parts for mating with one or more second mating parts on the first shell part , said first and second mating parts preventing outward movement of the walls of the first shell part when said first and second mating parts are mutually engaged, wherein the capsule holder is positioned in the first shell part , wherein the first shell part comprises an aperture through which the trigger protrudes, wherein the aperture comprises a cut-out in the rim of the first shell part and through which the trigger may pass when the capsule holder is removed from the first shell part , and wherein the support comprises one or more first mating parts for mating with one or more second mating parts on the first shell part , said first and second mating parts preventing outward movement of the walls of the first shell part when said first and second mating parts are mutually engaged,
A tissue sample container , comprising: a base having a bottom surface having a plurality of sample holding sections, which are configured to receive a plurality of tissue samples in a given orientation, said sample holding sections being demarcated by boundary ribs; and a lid configured to sealingly engage the base , wherein the sample holding sections are sized and shaped to correspond to a specific tissue sample size and shape such that the base in cooperation with the boundary ribs, maintain the given orientation and identity of the tissue samples within respective sample holding sections wherein the tissue sample container is sealed when the lid is placed on top of the base characterized by a retaining member configured to at least partially cover the sample holding sections and, in cooperation with the boundary ribs, maintain the given orientation of the tissue samples within the respective sample holding sections . a base having a bottom surface having a plurality of sample holding sections, which are configured to receive a plurality of tissue samples in a given orientation, said sample holding sections being demarcated by boundary ribs; and a lid configured to sealingly engage the base , wherein the sample holding sections are sized and shaped to correspond to a specific tissue sample size and shape such that the base in cooperation with the boundary ribs, maintain the given orientation and identity of the tissue samples within respective sample holding sections wherein the tissue sample container is sealed when the lid is placed on top of the base characterized by a retaining member configured to at least partially cover the sample holding sections and, in cooperation with the boundary ribs, maintain the given orientation of the tissue samples within the respective sample holding sections .
A prepreg comprising a urethane-modified epoxy (meth)acrylate (A) that is a reaction product of an epoxy (meth)acrylate (a1) having an average of 1.8 to 2.6 hydroxy groups per molecule and a polyisocyanate (a2) having an average of 2 to 3 isocyanate groups per molecule, an ethylenically unsaturated monomer (B), a polymerization initiator (C), and reinforcing fibers (D) as essential components, wherein the molar ratio (NCO/OH) of isocyanate groups (NCO) in the polyisocyanate (a2) to hydroxy groups in the epoxy (meth)acrylate (a1) is 0.6 to 1.1, the proportion of the ethylenically unsaturated monomer (B) in a total mass of the epoxy (meth)acrylate (a1) and the ethylenically unsaturated monomer (B) is 10% to 50% by mass, the ethylenically unsaturated monomer (B) is a monofunctional (meth)acrylate having a molecular weight of 150 to 250, and the reinforcing fibers (D) are carbon fibers and/or glass fibers. the molar ratio (NCO/OH) of isocyanate groups (NCO) in the polyisocyanate (a2) to hydroxy groups in the epoxy (meth)acrylate (a1) is 0.6 to 1.1, the proportion of the ethylenically unsaturated monomer (B) in a total mass of the epoxy (meth)acrylate (a1) and the ethylenically unsaturated monomer (B) is 10% to 50% by mass, the ethylenically unsaturated monomer (B) is a monofunctional (meth)acrylate having a molecular weight of 150 to 250, and the reinforcing fibers (D) are carbon fibers and/or glass fibers.
A method of manufacturing a battery cell , comprising the steps of: forming a battery cell by providing a separator ; providing a first current collector ; applying a protective layer directly to the surface of the first current collector , the first current collector and the protective layer being disposed on one side of the separator ; wherein the protective layer is disposed between the first current collector and the separator , and wherein the protective layer is formed from a polymer and/or a polymer composite that includes a plurality of different polymers; disposing a first electrode on an opposite side of the separator as the first current collector and the protective layer ; wherein the first electrode is formed from a lithium cobalt oxide (LiCoO 2 ), lithium nickel cobalt oxide (LiNiCoO 2 ), lithium manganese nickel cobalt oxide (LiNiMnCoO 2 ), lithium manganese silicon oxide (Li 2 MnSiO 4 ), lithium iron phosphate (LiFePO 4 ), lithium fluoride (LiF), and/or lithium sulfide (Li 2 S); filling the battery cell casing with a liquid electrolyte to render the protective layer ionically conductive; and subjecting the battery cell to charging, thereby causing lithium metal to be extracted from the first electrode and deposited between the first current collector and the protective layer , wherein the deposit of the metal forms a lithium metal electrode as a second electrode in situ between the first current collector and the protective layer , wherein the lithium metal extracted from the first electrode and deposited between the first current collector and the protective layer comprises dendrites, and wherein the protective layer prevents the dendrites forming the second electrode from penetrating the separator and causing an internal short within the battery . forming a battery cell by providing a separator ; providing a first current collector ; applying a protective layer directly to the surface of the first current collector , the first current collector and the protective layer being disposed on one side of the separator ; wherein the protective layer is disposed between the first current collector and the separator , and wherein the protective layer is formed from a polymer and/or a polymer composite that includes a plurality of different polymers; disposing a first electrode on an opposite side of the separator as the first current collector and the protective layer ; wherein the first electrode is formed from a lithium cobalt oxide (LiCoO 2 ), lithium nickel cobalt oxide (LiNiCoO 2 ), lithium manganese nickel cobalt oxide (LiNiMnCoO 2 ), lithium manganese silicon oxide (Li 2 MnSiO 4 ), lithium iron phosphate (LiFePO 4 ), lithium fluoride (LiF), and/or lithium sulfide (Li 2 S); filling the battery cell casing with a liquid electrolyte to render the protective layer ionically conductive; and
One or more machine readable non-transitory storage media including instructions which, when executed by one or more processors, cause the one or more processors to perform operations associated with a polyphase induction motor monitoring system, the operations comprising: receiving measurements indicative of voltage and current associated with the induction motor ; converting the voltage measurements to discrete-time voltage samples ( v ab,n v bc,n ) and the current measurements to discrete-time current samples (i a,n i b,n ); determining a complex voltage ( v C,n ) from the discrete-time voltage samples and a complex current ( i C,n ) from the discrete-time current samples; receiving motor nameplate data associated with the motor ; determining a dynamically varying carrier frequency; characterized by determining an estimated filter bandwidth; and demodulating the instantaneous rotor slot harmonic frequency based on the dynamically varying carrier frequency, the estimated filter bandwidth, and the motor nameplate data, wherein the determining and estimated filer bandwidth ( f B,H ) is based on the complex voltage, the complex current, a complex filtered power associated with the motor and the motor nameplate data, and wherein: the dynamically varying carrier frequency is determined via an anticipated rotor slot harmonic frequency, and the anticipated rotor slot harmonic frequency is based on the complex voltage, the complex current, and the motor nameplate data. receiving measurements indicative of voltage and current associated with the induction motor ; converting the voltage measurements to discrete-time voltage samples ( v ab,n v bc,n ) and the current measurements to discrete-time current samples (i a,n i b,n ); determining a complex voltage ( v C,n ) from the discrete-time voltage samples and a complex current ( i C,n ) from the discrete-time current samples; receiving motor nameplate data associated with the motor ; determining a dynamically varying carrier frequency; characterized by determining an estimated filter bandwidth; and demodulating the instantaneous rotor slot harmonic frequency based on the dynamically varying carrier frequency, the estimated filter bandwidth, and the motor nameplate data, wherein the determining and estimated filer bandwidth ( f B,H ) is based on the complex voltage, the complex current, a complex filtered power associated with the motor and the motor nameplate data, and wherein: the dynamically varying carrier frequency is determined via an anticipated rotor slot harmonic frequency, and the anticipated rotor slot harmonic frequency is based on the complex voltage, the complex current, and the motor nameplate data. the dynamically varying carrier frequency is determined via an anticipated rotor slot harmonic frequency, and the anticipated rotor slot harmonic frequency is based on the complex voltage, the complex current, and the motor nameplate data.
A payload coupling apparatus comprising: a housing ; a tether, wherein the housing is attached to a first end of the tether; and a slot extending downwardly from an outer surface of the housing towards a center of the housing thereby forming a lower lip on the housing beneath the slot; wherein the slot is adapted to receive a handle of a payload; wherein the handle of the payload automatically decouples from the slot of the housing when the payload is lowered to the ground; and wherein the lower lip includes an upwardly extending shank that extends within a shank cavity within the housing, and wherein the tether extends through the housing and is attached to the shank and the housing is movable relative to the shank and lower lip, such that when the handle of the payload is decoupled from the slot, the housing moves downwardly via gravity into engagement with the lower lip to close the slot. a housing ; a tether, wherein the housing is attached to a first end of the tether; and a slot extending downwardly from an outer surface of the housing towards a center of the housing thereby forming a lower lip on the housing beneath the slot; wherein the slot is adapted to receive a handle of a payload; wherein the handle of the payload automatically decouples from the slot of the housing when the payload is lowered to the ground; and wherein the lower lip includes an upwardly extending shank that extends within a shank cavity within the housing, and wherein the tether extends through the housing and is attached to the shank and the housing is movable relative to the shank and lower lip, such that when the handle of the payload is decoupled from the slot, the housing moves downwardly via gravity into engagement with the lower lip to close the slot.
A bone screw comprising (a) a shaft comprising: (i) a head , a lower section , and a middle section therebetween , wherein the shaft comprises a circular cross-section; (ii) an outer wall surface , wherein a plurality of threads is disposed along at least a portion of the outer wall surface ; and (iii) a bore defining an inner wall surface and located in the middle section , wherein the bore comprises a substantially cylindrical shape; and (b) a magnet configured to fit within the bore , wherein the magnet is a rare-earth magnet, characterized in that the bore comprises a substantially cylindrical shape containing a flattened side in the direction of the long axis of the bore ; and wherein the magnet comprises a substantially cylindrical shape containing a flattened side in the direction of the long axis of the magnet . (a) a shaft comprising: (i) a head , a lower section , and a middle section therebetween , wherein the shaft comprises a circular cross-section; (ii) an outer wall surface , wherein a plurality of threads is disposed along at least a portion of the outer wall surface ; and (iii) a bore defining an inner wall surface and located in the middle section , wherein the bore comprises a substantially cylindrical shape; and (i) a head , a lower section , and a middle section therebetween , wherein the shaft comprises a circular cross-section; (ii) an outer wall surface , wherein a plurality of threads is disposed along at least a portion of the outer wall surface ; and (iii) a bore defining an inner wall surface and located in the middle section , wherein the bore comprises a substantially cylindrical shape; and (b) a magnet configured to fit within the bore , wherein the magnet is a rare-earth magnet,
An operator feedback unit for a teach routine of an autonomous lawn care mobile robot , the teach routine including piloting the robot lawnmower to trace a perimeter around a lawn in a manual confinement perimeter teaching mode, the feedback unit including an operator display and being configured to: display, when an operator completes a teaching run, a first shape of a perimeter traced during the completed teaching run on the operator display ; and characterized in that the feedback unit is further configured to: display, after the operator completes a subsequent teaching run, the shape of the most recent perimeter traced during the subsequent teaching run overlaid on top of the first shape . display, when an operator completes a teaching run, a first shape of a perimeter traced during the completed teaching run on the operator display ; and characterized in that the feedback unit is further configured to: display, after the operator completes a subsequent teaching run, the shape of the most recent perimeter traced during the subsequent teaching run overlaid on top of the first shape .
Lamellar blind having a curtain which can be pulled up and released on lift bands and consists of curtain slats and a lower end slat , wherein the lift bands act on the end slat , and having a guide rail on one or both sides of the curtain, wherein the end slat is guided in one or both guide rails , and wherein an anti-lifting device is provided for the end slat , which in a blocking state prevents an upward movement of the end slat and in a release state allows it, which anti-lifting device comprises a switching mechanism and at least one locking member , wherein the at least one locking member of the anti-lifting device is movable between its locked position and its release position and in particular is arranged in an associated guide rail and in its locked position prevents movement of the end slat and in its release position permits movement of the end slat , wherein the anti-lifting device can be switched between the locked state and the release state via the switching mechanism , and wherein the switching mechanism is designed to switch the at least one locking member between its locking position and its release position, characterized in that the switching mechanism comprises a switching shaft which is rotatably accommodated on the end slat and is operatively connected to the at least one locking member in order to switch the locking member between its locking position and its release position.
A freight container comprising: an outer shell configured to contain bulk cargo, wherein the outer shell includes: an engageable portion for engaging with a spreader of a container crane at each four corners of upper and lower surfaces; an opening for flowing of bulk cargo into the outer shell arranged on the top of the container ; and a filter configured to exhaust air in the outer shell; wherein the outer shell has a bottom characterised in that the bottom has an outlet for discharging the bulk cargo; and the outer shell has an outlet lid that opens and closes the outlet , and is turnable on a rotary shaft . an outer shell configured to contain bulk cargo, wherein the outer shell includes: an engageable portion for engaging with a spreader of a container crane at each four corners of upper and lower surfaces; an opening for flowing of bulk cargo into the outer shell arranged on the top of the container ; and a filter configured to exhaust air in the outer shell; wherein the outer shell has a bottom characterised in that the bottom has an outlet for discharging the bulk cargo; and the outer shell has an outlet lid that opens and closes the outlet , and is turnable on a rotary shaft . an engageable portion for engaging with a spreader of a container crane at each four corners of upper and lower surfaces; an opening for flowing of bulk cargo into the outer shell arranged on the top of the container ; and a filter configured to exhaust air in the outer shell; wherein the outer shell has a bottom characterised in that the bottom has an outlet for discharging the bulk cargo; and the outer shell has an outlet lid that opens and closes the outlet , and is turnable on a rotary shaft .
A method comprising: determining, by an electronic device , a power demand of the electronic device ; wherein the electronic device includes a wireless power receiver including a wireless power receiving coil configured to receive power through inductive coupling with a wireless charger ; characterized by determining, by the electronic device, an operating voltage or operating frequency for the wireless charger based on the power demand of the electronic device ; and sending, by the electronic device and to the wireless charger, data indicating the operating voltage or operating frequency for the wireless charger , receiving, from the wireless charger, identifying data for the wireless charger; and accessing charger profile data corresponding to the wireless charger based on the identifying data, the charger profile data indicating characteristics of the wireless charger for different power transmission levels; and wherein determining the operating voltage or operating frequency for the wireless charger comprises determining, based on the charger profile data, an operating voltage or operating frequency corresponding to the power demand of the electronic device. determining, by an electronic device , a power demand of the electronic device ; wherein the electronic device includes a wireless power receiver including a wireless power receiving coil configured to receive power through inductive coupling with a wireless charger ; characterized by determining, by the electronic device, an operating voltage or operating frequency for the wireless charger based on the power demand of the electronic device ; and sending, by the electronic device and to the wireless charger, data indicating the operating voltage or operating frequency for the wireless charger , receiving, from the wireless charger, identifying data for the wireless charger; and accessing charger profile data corresponding to the wireless charger based on the identifying data, the charger profile data indicating characteristics of the wireless charger for different power transmission levels; and wherein determining the operating voltage or operating frequency for the wireless charger comprises determining, based on the charger profile data, an operating voltage or operating frequency corresponding to the power demand of the electronic device.