mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging assembly comprising: a case configured to at least partially contain a plurality of injection devices for delivering a medicament; a sensor arrangement comprising at least one device sensor , wherein the at least one device sensor is configured to detect one or more injection devices contained in the case , and to output a signal according to a result of the detection; a lid coupled to the case and movable between an open position and a closed position; and a lid sensor configured to output a signal representative of a change in position of the lid from the closed position to the open position; characterized in that the sensor arrangement is configured to activate based on the signal received from the lid sensor ; and wherein the at least one device sensor is configured to detect an identity of a detected injection device and one or more of a device type, expiry date, dosing time period and warm-up time period of the injection device, and to output a signal representative of the detected identity and one or more of a device type, expiry date, dosing time period and warm-up time period of the injection device. a case configured to at least partially contain a plurality of injection devices for delivering a medicament; a sensor arrangement comprising at least one device sensor , wherein the at least one device sensor is configured to detect one or more injection devices contained in the case , and to output a signal according to a result of the detection; a lid coupled to the case and movable between an open position and a closed position; and a lid sensor configured to output a signal representative of a change in position of the lid from the closed position to the open position; characterized in that the sensor arrangement is configured to activate based on the signal received from the lid sensor ; and wherein the at least one device sensor is configured to detect an identity of a detected injection device and one or more of a device type, expiry date, dosing time period and warm-up time period of the injection device, and to output a signal representative of the detected identity and one or more of a device type, expiry date, dosing time period and warm-up time period of the injection device.
Control system (S; S') for vehicles, in particular commercial vehicles, comprising a control lever element arranged along a first system axis (Z), the first system axis (Z) being rigidly connected to a second system axis (X) and a third system axis (Y) at a reference point , the second system axis (X) and the third system axis (Y) being rigidly arranged with respect to one another, it being possible for the control system (S; S') to be deflected starting from an initial position (SG) of the control system (S; S') by means of rotation about the reference point , characterised in that at least one actuator element (5; 7) for actively moving the relevant system axis (X, Y) and at least one restoring element (6; 8) for restoring the relevant system axis (X, Y) into the initial position (SG) of the control system (S; S') are directly connected to at least one of the second system axis (X) or third system axis (Y) in each case by means of an upper end (5a1, 6a1; 7a1, 8a1) of a longitudinal axis (5a, 6a; 7a, 8a).
A system for generating inerting gas on a vehicle, the system comprising: a proton exchange membrane (PEM) inerting system ; a pure water replenishment system configured to provide pure water to the PEM inerting system, wherein pure water is de-ionized or distilled water and wherein the pure water replenishment system is in fluid communication with the PEM inerting system to replenish water lost during operation of the PEM inerting system ; and a control system configured to control operation of the pure water replenishment system to automatically replenish pure water to the PEM inerting system ; characterized by the control system being operably connected to one or more sensors arranged to measure a water level within the PEM inerting system; and wherein the control system is further configured to (i) detect a low water level within the PEM inerting system and (ii) maintain a predetermined minimum level of pure water within the PEM inerting system . a proton exchange membrane (PEM) inerting system ; a pure water replenishment system configured to provide pure water to the PEM inerting system, wherein pure water is de-ionized or distilled water and wherein the pure water replenishment system is in fluid communication with the PEM inerting system to replenish water lost during operation of the PEM inerting system ; and a control system configured to control operation of the pure water replenishment system to automatically replenish pure water to the PEM inerting system ; characterized by the control system being operably connected to one or more sensors arranged to measure a water level within the PEM inerting system; and wherein the control system is further configured to (i) detect a low water level within the PEM inerting system and (ii) maintain a predetermined minimum level of pure water within the PEM inerting system .
An optical window , comprising: a forward portion and an aft portion; a central longitudinal axis (A2) extending between the forward and aft portions; a lateral axis (A1) perpendicular to the central longitudinal axis (A2); multiple anti-reflection coatings ; an outermost window layer interleaved between outermost and outer-intermediate ones of the multiple anti-reflection coatings; an innermost window layer interleaved between innermost and inner-intermediate ones of the multiple anti-reflection coatings; and an electromagnetic interference - EMI - treatment layer interleaved between the outer-intermediate and inner-intermediate anti-reflection coatings, wherein the outermost window layer comprises nanocomposite optical ceramic material and the innermost window layer comprises a single phase material, wherein the nanocomposite optical ceramic has a distribution gradient of nanocomposite formulations, and wherein the distribution gradient of nanocomposite formulations is defined relative to the lateral axis (A1) and the central longitudinal axis (A2). a forward portion and an aft portion; a central longitudinal axis (A2) extending between the forward and aft portions; a lateral axis (A1) perpendicular to the central longitudinal axis (A2); multiple anti-reflection coatings ; an outermost window layer interleaved between outermost and outer-intermediate ones of the multiple anti-reflection coatings; an innermost window layer interleaved between innermost and inner-intermediate ones of the multiple anti-reflection coatings; and an electromagnetic interference - EMI - treatment layer interleaved between the outer-intermediate and inner-intermediate anti-reflection coatings, wherein the outermost window layer comprises nanocomposite optical ceramic material and the innermost window layer comprises a single phase material, wherein the nanocomposite optical ceramic has a distribution gradient of nanocomposite formulations, and wherein the distribution gradient of nanocomposite formulations is defined relative to the lateral axis (A1) and the central longitudinal axis (A2).
A method for determining a speed of an electric motor of an elevator comprising a plurality of phases for supplying electric current to the electric motor , the method comprising - forming an effective short-circuit between at least two of the plurality of phases of the electric motor , wherein, in the effective short-circuit, said at least two phases are short-circuited either directly through a zero or substantially zero-ohm connection or through a resistive component, - determining a short-circuit current, the short-circuit current being the current flowing in the effective short-circuit, characterised in that, the method comprises - determining the speed of the electric motor based on at least one characteristic of the short-circuit current, wherein the characteristic is a frequency of the short-circuit current, or, wherein the electric motor is a surface-mounted permanent magnet motor and the formed effective short-circuit is symmetrical, an amplitude of the short-circuit current and determining of the speed is according to equation N = N NOM R I SC E 2 3 − I SC 2 X 2 , wherein N is the speed of said motor , N NOM is the nominal rotational speed of said motor , R is a winding resistance of said motor , E is the root mean square value of a phase-to-phase back electromotive force of said motor at the nominal rotational speed of said motor , I SC is the RMS value of the short-circuit current, X is a winding reactance of said motor at the nominal rotational speed of said motor . - forming an effective short-circuit between at least two of the plurality of phases of the electric motor , wherein, in the effective short-circuit, said at least two phases are short-circuited either directly through a zero or substantially zero-ohm connection or through a resistive component, - determining a short-circuit current, the short-circuit current being the current flowing in the effective short-circuit, characterised in that, the method comprises - determining the speed of the electric motor based on at least one characteristic of the short-circuit current, wherein the characteristic is a frequency of the short-circuit current, or, wherein the electric motor is a surface-mounted permanent magnet motor and the formed effective short-circuit is symmetrical, an amplitude of the short-circuit current and determining of the speed is according to equation N = N NOM R I SC E 2 3 − I SC 2 X 2 , wherein N is the speed of said motor , N NOM is the nominal rotational speed of said motor , R is a winding resistance of said motor , E is the root mean square value of a phase-to-phase back electromotive force of said motor at the nominal rotational speed of said motor , I SC is the RMS value of the short-circuit current, X is a winding reactance of said motor at the nominal rotational speed of said motor .
A method implemented by one or more processors, the method comprising: receiving audio data that captures a spoken utterance of a user, the audio data being detected via one or more microphones of an assistant device of the user; performing speech recognition on the audio data to generate a recognition of the spoken utterance; determining , based on the speech recognition, an assistant action conveyed by the spoken utterance; performing the assistant action responsive to receiving the spoken utterance; determining that one or more terms of the recognition correspond to a particular text dependent speaker verification, TD-SV, for the user, the one or more terms being separate from any general invocation wake words for the assistant device; determining that an authentication measure, for the user and for the spoken utterance, satisfies a threshold; in response to determining that the one or more terms of the recognition correspond to the particular TD-SV for the user and in response to determining that the authentication measure satisfies the threshold: processing a portion of the audio data, that corresponds to the one or more terms, in generating speaker features for the particular TD-SV for the user. receiving audio data that captures a spoken utterance of a user, the audio data being detected via one or more microphones of an assistant device of the user; performing speech recognition on the audio data to generate a recognition of the spoken utterance; determining , based on the speech recognition, an assistant action conveyed by the spoken utterance; performing the assistant action responsive to receiving the spoken utterance; determining that one or more terms of the recognition correspond to a particular text dependent speaker verification, TD-SV, for the user, the one or more terms being separate from any general invocation wake words for the assistant device; determining that an authentication measure, for the user and for the spoken utterance, satisfies a threshold; in response to determining that the one or more terms of the recognition correspond to the particular TD-SV for the user and in response to determining that the authentication measure satisfies the threshold: processing a portion of the audio data, that corresponds to the one or more terms, in generating speaker features for the particular TD-SV for the user.
Chain grouser arrangement for a crawler chain of a tracked piste grooming vehicle, having a chain grouser profile (5 to 5d), and having a track bracket member (10 to 10d) provided on the chain grouser profile in the region of a bottom side of the chain grouser profile (5 to 5d), characterized in that the chain grouser profile (5 to 5d) is provided with a cross section varying in a width along its length, wherein the chain grouser profile presents a longitudinal profile, with the width thereof enlarged in a central region as compared to the regions leading towards the opposite end faces.
Process for the production of diesel and gasoline mixture components from glycerin only, comprising the following steps: a) catalytic hydrogenation of glycerin with a conversion of not less than 50% to obtain a mixture of 1-propanol and 1,2-propanediol in a molar ratio between them from 50/50 to 90/10; b) separation of 1-propanol, 1,2-propanediol and glycerin from the reaction mixture of step (a); c) condensation of 1,2-propanediol obtained in step (b) in the presence of an acid catalyst to obtain 2-ethyl-4-methyl-1,3-dioxolane (PrDIOX); d) etherification of glycerin by reaction with 1-propanol, under conditions to obtain predominantly 3-(n-propoxy)-1,2-propanediol; e) reaction of the 3-(n-propoxy)-1,2-propanediol obtained in step (d) and the 2-ethyl-4-methyl-1,3-dioxolane obtained in step (c) in the presence of an acid catalyst to obtain 2-ethyl-4-(n-propoxymethyl) -1,3-dioxolane; f) maintaining the remaining part of 1-propanol obtained in step (b) for subsequent uses. a) catalytic hydrogenation of glycerin with a conversion of not less than 50% to obtain a mixture of 1-propanol and 1,2-propanediol in a molar ratio between them from 50/50 to 90/10; b) separation of 1-propanol, 1,2-propanediol and glycerin from the reaction mixture of step (a); c) condensation of 1,2-propanediol obtained in step (b) in the presence of an acid catalyst to obtain 2-ethyl-4-methyl-1,3-dioxolane (PrDIOX); d) etherification of glycerin by reaction with 1-propanol, under conditions to obtain predominantly 3-(n-propoxy)-1,2-propanediol; e) reaction of the 3-(n-propoxy)-1,2-propanediol obtained in step (d) and the 2-ethyl-4-methyl-1,3-dioxolane obtained in step (c) in the presence of an acid catalyst to obtain 2-ethyl-4-(n-propoxymethyl) -1,3-dioxolane; f) maintaining the remaining part of 1-propanol obtained in step (b) for subsequent uses.
Apparatus to determine the blood sedimentation rate and other parameters connected thereto, carried out by emitting, by means of emitter means , a beam of radiations which passes through a sample being examined, and by detecting, by means of receiver means , the beam of radiations after they have passed through said sample, comprising a reading chamber associated to at least a tube connected to a feed (11; 21; 28) of the sample to be analyzed, said reading chamber being at least partly transparent to radiations in a certain range of wavelengths, and having at least a substantially rectilinear segment of reduced size into which the sample to be analyzed is introduced, characterized in that the reading chamber consists of a body made of plastic material, or glass, having an entrance hole and an exit hole able to be selectively coupled to respective feed and discharge ends of said tube , a through transit channel of a capillary size being defined between said entrance hole and said exit hole for the passage of the blood sample to be analyzed, wherein said body with through transit channel is housed inside a rigid container and wherein said rigid container defines housing seatings for segments of the tube upstream and downstream of the body with through transit channel , wherein said body with a through transit channel has at least a flat surface facing, during use, the emitter means and/or the receiver means .
Scanning unit for determining a relative angular position of an angle scale which can be rotated about an axis (A) with respect to the scanning unit, comprising - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is mounted on the first surface (1.1) of the printed circuit board and is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system , - a contact carrier which encloses electrical contacts (4.1) for establishing a plug-in connection and has an outer wall (4.2) and which is mounted on the second surface (1.2) of the printed circuit board , so that the contacts (4.1) run in a direction which has an axial component with respect to the axis (A), - a housing body (5; 5') with an opening (H) which has an inner wall (5.111), - a first elastic element , wherein the contact carrier projects into the opening (H), wherein the first elastic element is arranged between the inner wall (5.111) of the opening (H) and the outer wall (4.2) of the contact carrier with radial prestress with respect to the axis (A), so that the contact carrier is arranged in a manner centred with respect to the inner wall (5.111) of the opening (H), and the printed circuit board is radially spaced apart from the housing body (5; 5') with respect to the axis (A) by way of a first gap (Gr) from the housing body (5; 5') and is connected in a rotationally fixed manner to the housing body (5; 5'). - a printed circuit board which has a first surface (1.1) and a second surface (1.2), - a detector arrangement which is mounted on the first surface (1.1) of the printed circuit board and is arranged such that the angle scale which is situated opposite the first surface (1.1) of the printed circuit board can be scanned, - an evaluation electronics system , - a contact carrier which encloses electrical contacts (4.1) for establishing a plug-in connection and has an outer wall (4.2) and which is mounted on the second surface (1.2) of the printed circuit board , so that the contacts (4.1) run in a direction which has an axial component with respect to the axis (A), - a housing body (5; 5') with an opening (H) which has an inner wall (5.111), - a first elastic element ,
A method for checking communication performance of a station device , the method being carried out by the station device and comprising: communicating with a wireless access point which is movable from one place to another place; determining current communication performance with the wireless access point ; storing the determined current communication performance; comparing the current communication performance with pre-stored previous communication performance; and performing an output of whether the current communication performance is improved over the pre-stored previous communication performance based on a result of the comparing, wherein the pre-stored previous communication performance is determined to be communication performance with the wireless access point which is located in another place different from a current place. communicating with a wireless access point which is movable from one place to another place; determining current communication performance with the wireless access point ; storing the determined current communication performance; comparing the current communication performance with pre-stored previous communication performance; and performing an output of whether the current communication performance is improved over the pre-stored previous communication performance based on a result of the comparing, wherein the pre-stored previous communication performance is determined to be communication performance with the wireless access point which is located in another place different from a current place.
A polypeptide which binds to low-density lipoprotein receptor-like protein 5 (LRP5), the polypeptide comprising an immunoglobulin single variable domain (ISVD) selected from the group consisting of ISVDs (i) to (iv) : (i) an ISVD comprising the following complementarity-determining region (CDR) sequences: CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), (ii) an ISVD comprising the following CDR sequences: CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), (iii) an ISVD comprising the following CDR sequences: CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and (iv) an ISVD comprising the following CDR sequences: CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9). (i) an ISVD comprising the following complementarity-determining region (CDR) sequences: CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), CDR1: TYVMG (SEQ ID NO: 1) CDR2: AISWSGGSTYYADSVKG (SEQ ID NO:2) CDR3: SRGTSTPSRASGVSRYDY (SEQ ID NO:3), (ii) an ISVD comprising the following CDR sequences: CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), CDR1: RYAVA (SEQ ID NO:4) CDR2: AITWSSGRIDYADSVKG (SEQ ID NO:5) CDR3: DRRPRSTGRSGTGSPSTYDY (SEQ ID NO:6), (iii) an ISVD comprising the following CDR sequences: CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and CDR1: IGAMG (SEQ ID NO:7) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO:9), and (iv) an ISVD comprising the following CDR sequences: CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9). CDR1: INAMG (SEQ ID NO: 10) CDR2: AVSSGGSTYYVDSVKG (SEQ ID NO:8) CDR3: ETGPYGPPKRDY (SEQ ID NO: 9).
Dishwasher comprising a washing container that provides a washing chamber for receiving washware to be cleaned, which container has a plurality of walls , and comprising a functional component , which is formed as a waterbag, fresh-water container and/or temporary storage means for washing solution and is assigned to the outside of one of the walls of the washing container , the functional component being insulated and arranged between a first insulating body on the outside and a second insulating body located between the functional component and the associated wall of the washing container , characterised in that the insulating bodies are formed as moulded bodies which each provide a negative contour with respect to the positive contour of the respective facing side of the functional component , such that the functional component is sandwiched between the two insulating bodies and, in the final assembled state, the insulating bodies form a volumetric space between them, which space accommodates the functional component with the contours abutting, the insulating body arranged between the wall of the washing container and the functional component extending substantially over the entire outer surface of the wall of the washing container .