mhurhangee/patent-ind-claim-en huggingface dataset:
An additive manufacturing system for making dental restorations, comprising a resin vat forming a light permeable base , a build carrier for holding a workpiece built up by the system and a light source which is arranged to emit light through the light permeable base toward a region between the light permeable base and the build carrier , the light permeable base and the build carrier being positionable relative to each other in a build dimension (B) in which the workpiece is built up, wherein the system further comprises at least one resin supply for supplying different light hardenable resins in direct contact with each other in said vat , wherein the system comprises a plurality of resin supplies for supplying different light hardenable resins, and wherein the system is set up to build up a dental restoration by performing the following steps: (a) using the at least one of the resin supplies to provide a portion of a light hardenable resin in the resin vat ; (b) positioning the build carrier and the light permeable base at a predetermined distance relative to each other; (c) emitting light by the light source toward the region between the light permeable base and the build carrier for hardening the hardenable resin in said region; (d) successively repeating steps (a) to (c); whereby during building up the dental restoration step (a) is performed at least a first time for supplying a first light hardenable resin in the resin vat and a second time for supplying a different second light hardenable resin in the resin vat , and wherein the first and second light hardenable resin have different colors. (a) using the at least one of the resin supplies to provide a portion of a light hardenable resin in the resin vat ; (b) positioning the build carrier and the light permeable base at a predetermined distance relative to each other; (c) emitting light by the light source toward the region between the light permeable base and the build carrier for hardening the hardenable resin in said region; (d) successively repeating steps (a) to (c);
A patient interface assembly for a laser eye surgery system, the patient interface assembly comprising: an eye interface device configured to interface with an eye of a patient; a scanner configured to be coupled with the eye interface device and operable to scan an electromagnetic radiation beam in at least two dimensions in an eye interfaced with the eye interface device, the scanner and the eye interface device moving in conjunction with movement of the eye; a beam source that generates the electromagnetic radiation beam, characterized in that the patient interface assembly further comprises: a first support assembly that supports the scanner so as to accommodate relative movement between the scanner and the first support assembly parallel to a first direction so as to accommodate movement of the eye; and wherein the electromagnetic radiation beam propagates from the beam source to the scanner along an optical path having an optical path length that varies in response to movement of the eye. an eye interface device configured to interface with an eye of a patient; a scanner configured to be coupled with the eye interface device and operable to scan an electromagnetic radiation beam in at least two dimensions in an eye interfaced with the eye interface device, the scanner and the eye interface device moving in conjunction with movement of the eye; a beam source that generates the electromagnetic radiation beam, characterized in that the patient interface assembly further comprises: a first support assembly that supports the scanner so as to accommodate relative movement between the scanner and the first support assembly parallel to a first direction so as to accommodate movement of the eye; and wherein the electromagnetic radiation beam propagates from the beam source to the scanner along an optical path having an optical path length that varies in response to movement of the eye. a first support assembly that supports the scanner so as to accommodate relative movement between the scanner and the first support assembly parallel to a first direction so as to accommodate movement of the eye; and wherein the electromagnetic radiation beam propagates from the beam source to the scanner along an optical path having an optical path length that varies in response to movement of the eye.
A connector , comprising: a body having a mid portion positioned between a nose portion and a connecting portion , the nose portion terminating in a nose end, the body further having an opening positioned between the nose end and the connecting portion, the mid portion having a flexible strength member extending therethrough interconnecting the nose portion and the connecting portion; and a gate having a first end coupled proximate the connecting portion of the body and a second end configured and arranged to engage the nose portion of the body to selectively close the opening, wherein the gate has a closed position when positioned across the opening and an open position when the opening is at least partially unobstructed by the gate; wherein the flexible strength member includes a first stop pivotally connected to the nose portion, a second stop pivotally connected to the connecting portion, and an elongate member interconnecting the first and second stops and extending through the mid portion. a body having a mid portion positioned between a nose portion and a connecting portion , the nose portion terminating in a nose end, the body further having an opening positioned between the nose end and the connecting portion, the mid portion having a flexible strength member extending therethrough interconnecting the nose portion and the connecting portion; and a gate having a first end coupled proximate the connecting portion of the body and a second end configured and arranged to engage the nose portion of the body to selectively close the opening, wherein the gate has a closed position when positioned across the opening and an open position when the opening is at least partially unobstructed by the gate; wherein the flexible strength member includes a first stop pivotally connected to the nose portion, a second stop pivotally connected to the connecting portion, and an elongate member interconnecting the first and second stops and extending through the mid portion.
A composition comprising an mRNA encoding an ornithine transcarbamylase (OTC) protein for use in the treatment of ornithine transcarbamylase (OTC) deficiency, wherein: a) a subject is administered the composition at an effective dose and an administration interval such that at least one symptom or feature of the OTC deficiency is reduced in intensity, severity, or frequency or has delayed onset; b) the mRNA encoding the OTC protein comprises a polynucleotide sequence identical to SEQ ID NO: 3; and c) the mRNA is encapsulated within a liposome, wherein the liposome comprises one or more cationic lipids, one or more non-cationic lipids, one or more cholesterol-based lipids and one or more PEG-modified lipids. a) a subject is administered the composition at an effective dose and an administration interval such that at least one symptom or feature of the OTC deficiency is reduced in intensity, severity, or frequency or has delayed onset; b) the mRNA encoding the OTC protein comprises a polynucleotide sequence identical to SEQ ID NO: 3; and c) the mRNA is encapsulated within a liposome, wherein the liposome comprises one or more cationic lipids, one or more non-cationic lipids, one or more cholesterol-based lipids and one or more PEG-modified lipids.
Apparatus for identifying toughened glass, the apparatus comprising a polarising filter and means for reflecting light , the apparatus further comprising means for holding the polarising filter and/or the reflecting means such that the polarising filter and the reflecting means are both planar, parallel to each other, spaced apart and positioned such that light passes through the polarising filter and onto the reflecting means , where it is then reflected back through the polarising filter once again wherein the apparatus comprises a casing for holding the polarising filter and the reflecting means so that they are spaced apart and the distance between the polarising filter and the reflecting means is in the range 2mm to 2m, wherein the casing comprises a web member and a support member , the web member extending between the polarising filter and the reflecting means and holding them spaced apart, said member being positioned at one end of the polarising filter and the reflecting means, the support member for supporting the polarising filter and/or the reflecting means , each support member being such that it surrounds the edges of the polarising filter and/or the reflecting means.
Motor vehicle light comprising a circuit arrangement , the circuit arrangement having - a memory which has an identification memory region for storing at least one identification value for identifying the motor vehicle light , - a temperature measurement device for measuring a temperature value of the motor vehicle light , and - a data interface for connection to a first bus system , the circuit arrangement being configured to output the identification value to the first bus system via the data interface , characterized in that the circuit arrangement is designed as an integrated circuit and is further configured to additionally output the temperature value to the first bus system via the data interface . - a memory which has an identification memory region for storing at least one identification value for identifying the motor vehicle light , - a temperature measurement device for measuring a temperature value of the motor vehicle light , and - a data interface for connection to a first bus system ,
A controller of rotary electric machine which controls one rotary electric machine which has plural sets of windings via switching devices, the controller of rotary electric machine comprising: a current detection unit that, for each set, is configured to detect a current flowing into the winding; a current command calculation unit that, for each set, is configured to calculate a current command value flowing into the winding; a voltage command calculation unit that, for each set, is configured to calculate a voltage command value applied to the winding, based on the current command value and a current detection value; a switching control unit that, for each set, is configured to control on/off the switching device, based on the voltage command value; and characterised by a voltage control value calculation unit that is configured to calculate, for each set, a required DC voltage which is a minimum DC power voltage required for applying a voltage according to the voltage command value to the winding, based on the voltage command value, is configured to calculate one common required DC voltage (Vnecm) which is common to all sets, based on all sets of the required DC voltages, and is configured to change a common voltage control value (Vrev) so that the common required DC voltage (Vnecm) approaches a DC power voltage (VB) supplied to the switching devices, wherein the current command calculation unit is configured to change each set of the current command value, based on the common voltage control value (Vrev). a current detection unit that, for each set, is configured to detect a current flowing into the winding; a current command calculation unit that, for each set, is configured to calculate a current command value flowing into the winding; a voltage command calculation unit that, for each set, is configured to calculate a voltage command value applied to the winding, based on the current command value and a current detection value; a switching control unit that, for each set, is configured to control on/off the switching device, based on the voltage command value; and characterised by a voltage control value calculation unit that is configured to calculate, for each set, a required DC voltage which is a minimum DC power voltage required for applying a voltage according to the voltage command value to the winding, based on the voltage command value, is configured to calculate one common required DC voltage (Vnecm) which is common to all sets, based on all sets of the required DC voltages, and is configured to change a common voltage control value (Vrev) so that the common required DC voltage (Vnecm) approaches a DC power voltage (VB) supplied to the switching devices, wherein the current command calculation unit is configured to change each set of the current command value, based on the common voltage control value (Vrev).
At least one non-transitory computer-readable medium comprising one or more instructions that when executed by at least one processor, cause the at least one processor to: receive registration data from a local network device, wherein the registration data of the local network device comprises an SSID or BSSID for the local network of the local network device; store the registration data from the local network device; receive registration data from an electronic device , wherein the registration data of the electronic device comprises an SSID or BSSID for the local network of the electronic device ; transmit, to the local network device, a temporal pairing code (TPC); receive, from the electronic device , a request to pair the local network device and the electronic device , wherein the request includes the TPC, and wherein the local network device exposes itself to the network; determine whether the local network device and the electronic device are present in the same local network at the same time by determining whether: (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device ; and (b) the TPC is not expired; and based on a determination that the local network device and the electronic device are present in the same local network at the same time because the SSIDs or BSSIDs match and that the TPC is not expired, allow the pairing. receive registration data from a local network device, wherein the registration data of the local network device comprises an SSID or BSSID for the local network of the local network device; store the registration data from the local network device; receive registration data from an electronic device , wherein the registration data of the electronic device comprises an SSID or BSSID for the local network of the electronic device ; transmit, to the local network device, a temporal pairing code (TPC); receive, from the electronic device , a request to pair the local network device and the electronic device , wherein the request includes the TPC, and wherein the local network device exposes itself to the network; determine whether the local network device and the electronic device are present in the same local network at the same time by determining whether: (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device ; and (b) the TPC is not expired; and (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device ; and (b) the TPC is not expired; and based on a determination that the local network device and the electronic device are present in the same local network at the same time because the SSIDs or BSSIDs match and that the TPC is not expired, allow the pairing.
Method for operating a hearing system , - wherein the hearing system has a hearing device designed to modify an input signal for the purpose of sound output to a user and, to that end, to apply multiple algorithms with a respective potency (W), as a result of which a respective algorithm is applied with a present potency (aW) in a present situation, - wherein the hearing system has an input element in order to receive a report from the user, - wherein the hearing system is designed to recurrently receive a report from the user indicating that the user is dissatisfied with the sound output in the present situation, - wherein the hearing system has a database , containing multiple weights (G) for each algorithm , in order to rate a change of the potency (W), - wherein, if a report is received, each of the algorithms is rated by using the weights (G) to ascertain an individual-case relevance (R_e) for each of the algorithms , in order to assess the effect of a change of the potency (W) in the present situation, - wherein multiple individual-case relevances (R_e) are combined to form a relevance value (R) for each algorithm , the relevance values (R) are compared with one another, this is taken as a basis for selecting the most relevant algorithm , and then an adapted potency (pW) is used for the latter by adapting the present potency (aW) of the algorithm for a recommended potency (eW) determined on the basis of the weights (G). - wherein the hearing system has a hearing device designed to modify an input signal for the purpose of sound output to a user and, to that end, to apply multiple algorithms with a respective potency (W), as a result of which a respective algorithm is applied with a present potency (aW) in a present situation, - wherein the hearing system has an input element in order to receive a report from the user, - wherein the hearing system is designed to recurrently receive a report from the user indicating that the user is dissatisfied with the sound output in the present situation, - wherein the hearing system has a database , containing multiple weights (G) for each algorithm , in order to rate a change of the potency (W), - wherein, if a report is received, each of the algorithms is rated by using the weights (G) to ascertain an individual-case relevance (R_e) for each of the algorithms , in order to assess the effect of a change of the potency (W) in the present situation, - wherein multiple individual-case relevances (R_e) are combined to form a relevance value (R) for each algorithm , the relevance values (R) are compared with one another, this is taken as a basis for selecting the most relevant algorithm , and then an adapted potency (pW) is used for the latter by adapting the present potency (aW) of the algorithm for a recommended potency (eW) determined on the basis of the weights (G).
A motor driving apparatus for controlling driving of a single-phase motor , the single-phase motor rotating a rotor , permanent magnets being disposed in the rotor, the motor driving apparatus comprising: an inverter comprising a plurality of switching elements (51 to 54), the inverter converting, by using the switching elements, a direct-current voltage into an alternating-current voltage and outputting the alternating-current voltage to the single-phase motor; a detection unit (20;21) detecting a physical quantity representing an operation state of the single-phase motor; and a control unit controlling, in accordance with the physical quantity, the alternating-current voltage from the inverter to be output to the single-phase motor, wherein the detection unit detects a value of current flowing through the single-phase motor as the physical quantity, characterised in that the control unit causes output of the alternating-current voltage from the inverter to the single-phase motor when an absolute value of the value of the current is less than a first threshold, halts the output of the alternating-current voltage from the inverter to the single-phase motor when an absolute value of the value of the current is equal to or more than a second threshold and less than a third threshold, and reverses polarity of an alternating-current voltage that the inverter outputs to the single-phase motor when an absolute value of the value of the current is equal to or more than the third threshold. an inverter comprising a plurality of switching elements (51 to 54), the inverter converting, by using the switching elements, a direct-current voltage into an alternating-current voltage and outputting the alternating-current voltage to the single-phase motor; a detection unit (20;21) detecting a physical quantity representing an operation state of the single-phase motor; and a control unit controlling, in accordance with the physical quantity, the alternating-current voltage from the inverter to be output to the single-phase motor, wherein the detection unit detects a value of current flowing through the single-phase motor as the physical quantity, characterised in that the control unit causes output of the alternating-current voltage from the inverter to the single-phase motor when an absolute value of the value of the current is less than a first threshold, halts the output of the alternating-current voltage from the inverter to the single-phase motor when an absolute value of the value of the current is equal to or more than a second threshold and less than a third threshold, and reverses polarity of an alternating-current voltage that the inverter outputs to the single-phase motor when an absolute value of the value of the current is equal to or more than the third threshold.
A compound according to formula (I), or a salt thereof: wherein R 1 is C 1-10 alkyl, C 2-10 alkenyl or C 2-10 alkynyl; R 2 is H, C 1-10 alkyl or benzyl; and R 3 is bromo or iodo. R 1 is C 1-10 alkyl, C 2-10 alkenyl or C 2-10 alkynyl; R 2 is H, C 1-10 alkyl or benzyl; and R 3 is bromo or iodo.
A method of removing diamagnetic material from a carrier stream that comprises the steps of: (a) providing a housing having (i) a stream inlet, (ii) a stream outlet and (iii) an interior region between the inlet and outlet which contains an inducement paramagnetic material which is selected from the group consisting of Ce, CeO 2 , CsO 2 , Co, CoO, Ni, CuO, NiO, NiS, Fe, FeO, Fe 2 O 3 , FeS, Mn, Ni/γAl 2 O 3 , Cr 2 O 3 , Dy 2 O 3 , Gd 2 O 3 , Ti, V, V 2 O 3 , Pd, Pt, Rh, Rh 2 O 3 , KO 2 , and mixtures thereof; (b) contacting a carrier stream comprising a carrier fluid and a diamagnetic material to the inducement paramagnetic material within the region wherein the diamagnetic material is selected from the group consisting of silicon, silicon carbide, γ-alumina, silica, silica/alumina, non-magnetic butadiene, magnetic butadiene, titanium oxide, ceramic, activated carbon, polyethylene, and elemental sulfur, and mixtures thereof and wherein the diamagnetic material comprises particles having a size in the range of 0.1 nm to 1.0 mm; and (c) establishing a magnetic field within the region thereby rendering the diamagnetic material sufficiently magnetic so as to be attracted by a magnet to a yield a cleaned carrier fluid with reduced levels of the diamagnetic material wherein the diamagnetic material is magnetized under the magnetic field through coordinated interaction of the diamagnetic material and the inducement paramagnetic material . (a) providing a housing having (i) a stream inlet, (ii) a stream outlet and (iii) an interior region between the inlet and outlet which contains an inducement paramagnetic material which is selected from the group consisting of Ce, CeO 2 , CsO 2 , Co, CoO, Ni, CuO, NiO, NiS, Fe, FeO, Fe 2 O 3 , FeS, Mn, Ni/γAl 2 O 3 , Cr 2 O 3 , Dy 2 O 3 , Gd 2 O 3 , Ti, V, V 2 O 3 , Pd, Pt, Rh, Rh 2 O 3 , KO 2 , and mixtures thereof; (b) contacting a carrier stream comprising a carrier fluid and a diamagnetic material to the inducement paramagnetic material within the region wherein the diamagnetic material is selected from the group consisting of silicon, silicon carbide, γ-alumina, silica, silica/alumina, non-magnetic butadiene, magnetic butadiene, titanium oxide, ceramic, activated carbon, polyethylene, and elemental sulfur, and mixtures thereof and wherein the diamagnetic material comprises particles having a size in the range of 0.1 nm to 1.0 mm; and (c) establishing a magnetic field within the region thereby rendering the diamagnetic material sufficiently magnetic so as to be attracted by a magnet to a yield a cleaned carrier fluid with reduced levels of the diamagnetic material wherein the diamagnetic material is magnetized under the magnetic field through coordinated interaction of the diamagnetic material and the inducement paramagnetic material .