mhurhangee/patent-ind-claim-en huggingface dataset:
Sheath removal mechanism for removing a protective needle sheath from an injection needle of a syringe in a drug delivery device , the sheath removal mechanism comprising: - a cap adapted to cover a distal end of a drug delivery device and adapted to engage the protective needle sheath , and characterised in that the sheath removal mechanism further comprises at least one rotatable cam adapted to move the cap in a distal direction (D) away from the syringe when rotated from a first rotational position (P1) towards a second rotational position (P2), wherein the rotatable cam is pivoted in the cap and adapted to bear against a portion of the drug delivery device , in which the syringe is held. - a cap adapted to cover a distal end of a drug delivery device and adapted to engage the protective needle sheath , and
A system for transmission of quantum information for quantum error correction, comprising: an ancilla qubit chip comprising a plurality of ancilla qubits ; a data qubit chip spaced apart from said ancilla qubit chip , said data qubit chip comprising a plurality of data qubits ; an interposer coupled to said ancilla qubit chip and said data qubit chip, said interposer comprising a dielectric material ; and a plurality of superconducting resonators each comprising one of the plurality of superconducting structures ; wherein each respective superconducting structure of the plurality of superconducting structures forms a part of a respective superconducting resonator having a third frequency; wherein the respective superconducting structure extends from a respective data qubit, having a first frequency, of the plurality of data qubits to a respective ancilla qubit, having a second frequency, of the plurality of ancilla qubits ; wherein the third frequency is detuned from the first and second frequency to prevent real photon transfer between the respective data qubit and the respective ancilla qubit ; wherein the respective superconducting structure enables transmission of quantum information between the respective data qubit on said data qubit chip and the respective ancilla qubit on said ancilla qubit chip via virtual photons for quantum error correction. an ancilla qubit chip comprising a plurality of ancilla qubits ; a data qubit chip spaced apart from said ancilla qubit chip , said data qubit chip comprising a plurality of data qubits ; an interposer coupled to said ancilla qubit chip and said data qubit chip, said interposer comprising a dielectric material ; and a plurality of superconducting resonators each comprising one of the plurality of superconducting structures ; wherein each respective superconducting structure of the plurality of superconducting structures forms a part of a respective superconducting resonator having a third frequency; wherein the respective superconducting structure extends from a respective data qubit, having a first frequency, of the plurality of data qubits to a respective ancilla qubit, having a second frequency, of the plurality of ancilla qubits ; wherein the third frequency is detuned from the first and second frequency to prevent real photon transfer between the respective data qubit and the respective ancilla qubit ; wherein the respective superconducting structure enables transmission of quantum information between the respective data qubit on said data qubit chip and the respective ancilla qubit on said ancilla qubit chip via virtual photons for quantum error correction.
A noise cancelling arrangement for a patient implantable hearing implant system, the arrangement comprising: an implantable microphone configured to sense a sound signal present at the microphone and produce a corresponding microphone output signal for the hearing implant system, wherein the sound signal includes: a sound source component present at the microphone from a sound source external to the patient, and a noise component present at the microphone from internal bone conduction; at least one implantable noise sensing element configured to sense the noise component and produce a corresponding noise output signal; a filter controlled by an adaptive algorithm responsive to transform the noise output signal provided from the at least one implantable noise sensing element for output as transducer control signal; and a bone conduction transducer coupled to the filter output and to skull bone, and configured to receive the transducer control signal and generate a corresponding mechanical vibration signal to the skull bone; wherein the adaptive algorithm is arranged to control the filter so that the mechanical vibration signal of the bone conduction transducer offsets the noise component sensed by the implantable microphone . a sound source component present at the microphone from a sound source external to the patient, and a noise component present at the microphone from internal bone conduction; at least one implantable noise sensing element configured to sense the noise component and produce a corresponding noise output signal; a filter controlled by an adaptive algorithm responsive to transform the noise output signal provided from the at least one implantable noise sensing element for output as transducer control signal; and a bone conduction transducer coupled to the filter output and to skull bone, and configured to receive the transducer control signal and generate a corresponding mechanical vibration signal to the skull bone; wherein the adaptive algorithm is arranged to control the filter so that the mechanical vibration signal of the bone conduction transducer offsets the noise component sensed by the implantable microphone .
A high torque belt sprocket comprising: - a body formed of a castable polymer material defining an outer periphery and a recessed hub section defining an inner surface for engaging a bushing comprising a smooth circular outer surface and at least one threaded port for securing with the high torque sprocket ; - a continuous toothed structure disposed on the outer periphery of the body , and having circular pitch (P); and, - a textile reinforcement embedded in the body adjacent the inner surface of the hub section ; wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch (P) is 0.65 or less. - a body formed of a castable polymer material defining an outer periphery and a recessed hub section defining an inner surface for engaging a bushing comprising a smooth circular outer surface and at least one threaded port for securing with the high torque sprocket ; - a continuous toothed structure disposed on the outer periphery of the body , and having circular pitch (P); and, - a textile reinforcement embedded in the body adjacent the inner surface of the hub section ; wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch (P) is 0.65 or less. wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch (P) is 0.65 or less.
Heating louvre for a louvred roof of a ground surface , such as a terrace, garden or the like, the louvred roof comprising at least two girders which extend parallel to each other and to which several louvres are rotatably connected between an open position and a closed position in which the louvres form a continuous cover, wherein the heating louvre is meant to be part of the louvred roof and is provided with an underside , the heating louvre comprising a cavity in which a heating element is fitted, characterised in that the heating louvre comprises a slot in its underside along at least a part of its length, this slot providing access to said cavity , wherein, after the heating element is fitted, the cavity is at least partially sealed by the heating element and wherein the heating element is provided to heat a position between the louvred roof and the ground surface by means of radiant heat.
Fitting for a window, a door or similar, with at least a first fitting element and a second fitting element and a coupling device , by means of which the fitting elements are connected detachably to one another, wherein at least the first fitting element is a drive rod and the coupling device comprises a bolt , which is arranged transversely to the longitudinal extension of the drive rod inserted into a first recess of the drive rod and into a second recess of the second fitting element , wherein the fitting comprises a releasable latching seat for the bolt and the latching seat comprises a locking spring , which on initial insertion of the bolt is deflected elastically by the bolt and on further insertion of the bolt is arranged snapped resiliently into a lateral locking depression of the bolt , whereby the bolt inserted into the two recesses is fixed in an axially secured manner, characterised in that the locking spring is formed as a hairpin spring, which comprises two spring pins for latching into the locking depression of the bolt .
A method for controlling a dishwasher comprising: selecting, via a user's selection, a steam operation mode for washing dishes from a plurality of steam operation modes based on the kinds of dishes or according to a degree of contamination of the dishes; and setting at least one of a water pump motor rotation speed, a number of repetitions of a steam supply step, a steam washing pattern, and an amount of detergent based on the selected steam operation mode, wherein the plurality of steam operation modes are different from each other in view of at least one of a water pump motor rotation speed, an amount of detergent, a number of repetitions of a steam supply step and a steam washing pattern. selecting, via a user's selection, a steam operation mode for washing dishes from a plurality of steam operation modes based on the kinds of dishes or according to a degree of contamination of the dishes; and setting at least one of a water pump motor rotation speed, a number of repetitions of a steam supply step, a steam washing pattern, and an amount of detergent based on the selected steam operation mode, wherein the plurality of steam operation modes are different from each other in view of at least one of a water pump motor rotation speed, an amount of detergent, a number of repetitions of a steam supply step and a steam washing pattern.
Method for operating a vehicle , wherein the vehicle has an image-recording device by means of which a vehicle in front which is travelling on the same lane in front of the vehicle in the direction of travel is recorded visually and/or on film with at least one recording, wherein the vehicle has an image-evaluating device by means of which the vertical movement of the vehicle in front relative to the carriageway is determined from the recording by the image-recording device , and wherein the vehicle has a carriageway-state-determining device by means of which the state of a carriageway region which lies ahead and is located in front of the vehicle is determined from the determined vertical movement of the vehicle in front , and wherein the determined information about the state of the carriageway region lying ahead is transmitted to a chassis control system , connected by signalling equipment to the carriageway-state-determining device , of the vehicle , and wherein by means of the carriageway-state-determining device it is detected from the determined vertical movement of the vehicle in front whether there is an uneven portion of the carriageway on the carriageway region lying ahead, and wherein the carriageway-state-determining device has a distance-determining device , by means of which the distance (a 1 ) between the vehicle and the vehicle in front is determined, characterized in that a distance (a 2 ) between the vehicle and the detected uneven portion of the carriageway on the carriageway region in front is determined from the distance (a 1 ) between the vehicle and the vehicle in front and from the determined vertical movement of the vehicle in front by means of the carriageway-state-determining device , and in that the time at which the vehicle is expected to reach the uneven portion of the carriageway is determined from the distance (a 2 ) between the vehicle and the detected uneven portion of the carriageway and from the speed of the vehicle by means of the carriageway-state-determining device , and in that this determined time is transmitted to the chassis control system , wherein there is provision that the speed of the vehicle in front which is determined by means of a speed-determining device of the carriageway-state-determining device is also taken into account in the determination of this time, and in that a pitching movement, a rolling movement and a vertical axis movement of a bodywork of the vehicle in front relative to the carriageway is determined as a vertical movement from the recording of the image-recording device by means of the image-evaluating device .
Dynamo-electric machine having a stator and a shaft which can be rotated about an axis , said shaft being connected to a rotor in a torsion-resistant manner, wherein a brake is arranged at least on one axial front side of the rotor , wherein the brake has a solely axially displaceable brake body and a brake rotor , which is directly connected to the laminated core of the rotor , characterised in that the brake rotor has axially extending pivots in the direction of the rotor at least in sections corresponding to axial recesses of the rotor , said pivots being suited to axially receiving an element, wherein the axially extending pivots have slots which spread by positioning the element in the pivot and thus wedge together in the recess of the rotor in a torsion-resistant manner and wherein the brake rotor is embodied in one piece with the pivots .
Timepiece mechanism comprising a winding mechanism and a barrel, wherein the kinematic chain from the winding pinion of the winding mechanism to the arbor of the barrel comprises a disengagement mobile designed to disengage when the torque generated by the barrel spring exceeds a certain value, the timepiece mechanism being characterised in that the disengagement mobile comprises a wheel , mounted to be freely rotatable about the barrel arbor , and a starwheel rotationally fixed to the barrel arbor , the wheel and starwheel being coaxial with the barrel arbor , as well as at least one pawl or jumper fixed to said first wheel and positioning the latter with respect to the starwheel .
A method for fabricating a preform that can be used for producing an active optical fiber that comprises at least one core corresponding to said preform , comprising the steps of: selecting SiO 2 -particles in form of a soot and particles of amplification or attenuation dopants and that have the same size; providing in an initial process stage a silica tube and a mixture comprising SiO 2 -particles and particles of amplification or attenuation dopants providing a liquid and mixing the liquid, the SiO 2 -particles and the particles of amplification or attenuation dopants in order to obtain a slurry; drying the slurry and applying a mechanical impact to the dried slurry in order to obtain a pulverized mixture; holding the silica tube , that comprises an interior space that is limited at the lower end of the silica tube by a closure that consists of porous material such as porous glass; pouring the mixture into the interior space of the silica tube ; introducing a flow of gas such as Oxygen O 2 , Helium He, Chlorine C1 2 or Fluorine F 2 through the first closure and through the mixture contained in the silica tube and heating the silica tube in order to purify and calcinate the mixture with a temperature below the vitrification level; preferably attaching an adjoiner to the upper end of the silica tube ; generating a reduced pressure within the interior space ; and heating with a temperature above the vitrification level at least the bottom portion of the unprocessed preform in order to fuse the silica tube and the mixture. selecting SiO 2 -particles in form of a soot and particles of amplification or attenuation dopants and that have the same size; providing in an initial process stage a silica tube and a mixture comprising SiO 2 -particles and particles of amplification or attenuation dopants providing a liquid and mixing the liquid, the SiO 2 -particles and the particles of amplification or attenuation dopants in order to obtain a slurry; drying the slurry and applying a mechanical impact to the dried slurry in order to obtain a pulverized mixture; holding the silica tube , that comprises an interior space that is limited at the lower end of the silica tube by a closure that consists of porous material such as porous glass; pouring the mixture into the interior space of the silica tube ; introducing a flow of gas such as Oxygen O 2 , Helium He, Chlorine C1 2 or Fluorine F 2 through the first closure and through the mixture contained in the silica tube and heating the silica tube in order to purify and calcinate the mixture with a temperature below the vitrification level; preferably attaching an adjoiner to the upper end of the silica tube ; generating a reduced pressure within the interior space ; and heating with a temperature above the vitrification level at least the bottom portion of the unprocessed preform in order to fuse the silica tube and the mixture.
A smart control method for an electronic cigarette , comprising: building (S101) a communication between a mobile terminal and the electronic cigarette ; characterized in that , the method further comprises: obtaining (S102) an identification number of the electronic cigarette by the mobile terminal , wherein the identification number of the electronic cigarette and heating wire parameters are stored in a cloud server , and the heating wire parameters correspond to the identification number; obtaining (S104) the heating wire parameters by the mobile terminal from the cloud server according to the identification number of the electronic cigarette ; acquiring (S105) a working power of the electronic cigarette by the mobile terminal according to the heating wire parameters and smoking parameters inputted from the mobile terminal ; and obtaining (S106) the working power by the electronic cigarette via the communication from the mobile terminal , and controlling a heating wire of the electronic cigarette to work at the working power. building (S101) a communication between a mobile terminal and the electronic cigarette ; characterized in that , the method further comprises: obtaining (S102) an identification number of the electronic cigarette by the mobile terminal , wherein the identification number of the electronic cigarette and heating wire parameters are stored in a cloud server , and the heating wire parameters correspond to the identification number; obtaining (S104) the heating wire parameters by the mobile terminal from the cloud server according to the identification number of the electronic cigarette ; acquiring (S105) a working power of the electronic cigarette by the mobile terminal according to the heating wire parameters and smoking parameters inputted from the mobile terminal ; and obtaining (S106) the working power by the electronic cigarette via the communication from the mobile terminal , and controlling a heating wire of the electronic cigarette to work at the working power. obtaining (S102) an identification number of the electronic cigarette by the mobile terminal , wherein the identification number of the electronic cigarette and heating wire parameters are stored in a cloud server , and the heating wire parameters correspond to the identification number; obtaining (S104) the heating wire parameters by the mobile terminal from the cloud server according to the identification number of the electronic cigarette ; acquiring (S105) a working power of the electronic cigarette by the mobile terminal according to the heating wire parameters and smoking parameters inputted from the mobile terminal ; and obtaining (S106) the working power by the electronic cigarette via the communication from the mobile terminal , and controlling a heating wire of the electronic cigarette to work at the working power.
A method for clearly marking an object , wherein a random distribution of individual pigment domains is applied to a surface of the object , and wherein a list of distances (ΔXY) of the individual pigment domains from each other is measured and stored in a database (DB1, DB2, DB3, DBj, DB765, DBk), with the following steps: - Recording an image of the pigment domains , - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image , - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains , and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list , - Storing the list in the database (DB765), characterized in that the list is enriched with meta information about the manufacturing and/or refining parameters of the object , as well as by - Applying a database identification as the information unit onto the surfaces of the object , wherein the information unit can clearly be allocated to the database (DB765). wherein a random distribution of individual pigment domains is applied to a surface of the object , and wherein a list of distances (ΔXY) of the individual pigment domains from each other is measured and stored in a database (DB1, DB2, DB3, DBj, DB765, DBk), with the following steps: - Recording an image of the pigment domains , - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image , - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains , and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list , - Storing the list in the database (DB765), - Recording an image of the pigment domains , - Identifying the two-dimensional coordinates (X, Y) of each of the pigment domains recorded in the image , - Determining the two-dimensional distances (ΔXY) of each pair of two pigment domains , and/or - Determining the angle (α) of each triple of pigment domains, - Storing the distances (ΔXY) and/or angles (α) determined beforehand in one of the steps in a list , - Storing the list in the database (DB765), characterized in that the list is enriched with meta information about the manufacturing and/or refining parameters of the object , as well as by - Applying a database identification as the information unit onto the surfaces of the object , wherein the information unit can clearly be allocated to the database (DB765). - Applying a database identification as the information unit onto the surfaces of the object , wherein the information unit can clearly be allocated to the database (DB765).
An antibody formulation comprising: a. 100 mg/mL to 200 mg/mL anifrolumab; b. 40 mM to 60 mM lysine HCl; c. 100 mM to 160 mM trehalose dihydrate; d. 0.02% to 0.1% polysorbate 80; e. 15 mM to 35 mM histidine/histidine HCl, wherein the formulation is at a pH of about 5.5 to about 6.5. a. 100 mg/mL to 200 mg/mL anifrolumab; b. 40 mM to 60 mM lysine HCl; c. 100 mM to 160 mM trehalose dihydrate; d. 0.02% to 0.1% polysorbate 80; e. 15 mM to 35 mM histidine/histidine HCl,