mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a formed film, comprising: providing a formable film having a conductive pattern on a first side of the formable film; printing a deformation-preventing element onto the formable film; and forming at least one section of the formable film at a forming temperature; wherein a modulus of elasticity of the deformation-preventing element at the forming temperature is greater than a modulus of elasticity of the formable film at the forming temperature; ch a r act e r i sed in that the printing the deformation-preventing element onto the formable film is performed by printing a nanopowder ink onto the formable film and sintering the nanopowder and in that the deformation-preventing element is printed onto a second side of the formable film opposing the first side of the formable film. providing a formable film having a conductive pattern on a first side of the formable film; printing a deformation-preventing element onto the formable film; and forming at least one section of the formable film at a forming temperature; wherein a modulus of elasticity of the deformation-preventing element at the forming temperature is greater than a modulus of elasticity of the formable film at the forming temperature; ch a r act e r i sed in that the printing the deformation-preventing element onto the formable film is performed by printing a nanopowder ink onto the formable film and sintering the nanopowder and in that the deformation-preventing element is printed onto a second side of the formable film opposing the first side of the formable film.
A welding head assembly comprising: a plurality of inter-connectable modular functional blocks , wherein the plurality of modular functional blocks is_configurable in a plurality of different configurations, and the plurality of modular functional blocks includes one of a laser beam delivery block , a welding wire delivery block , a gas delivery block , and a cooling water delivery block , characterized in that each modular functional block has a first lateral side having a projection and a second lateral side having a slidably mating recess , the projection configured to couple to another recess of another of the modular functional blocks . a plurality of inter-connectable modular functional blocks , wherein the plurality of modular functional blocks is_configurable in a plurality of different configurations, and the plurality of modular functional blocks includes one of a laser beam delivery block , a welding wire delivery block , a gas delivery block , and a cooling water delivery block , characterized in that each modular functional block has a first lateral side having a projection and a second lateral side having a slidably mating recess , the projection configured to couple to another recess of another of the modular functional blocks .
A method implemented using one or more processors, comprising: capturing a spoken utterance at a microphone to generate audio data, wherein the spoken utterance is spoken in a first natural language; performing speech recognition processing on the audio data to generate speech-recognition output; applying the speech-recognition output as input across a trained machine translation model to generate output, wherein the output is indicative of a canonical translation of the speech-recognition output from the first natural language to a second natural language; determining an intent conveyed by the spoken utterance based on the canonical translation; and performing one or more responsive actions based on the intent; wherein the machine translation model was trained to map each of a plurality of semantically-related phrases in the first natural language to the same canonical translation in the second natural language, wherein the machine translation model was trained by: training the machine translation model using training data that was generated based on the plurality of semantically-related phrases in the first natural language and the canonical translation in the second natural language. capturing a spoken utterance at a microphone to generate audio data, wherein the spoken utterance is spoken in a first natural language; performing speech recognition processing on the audio data to generate speech-recognition output; applying the speech-recognition output as input across a trained machine translation model to generate output, wherein the output is indicative of a canonical translation of the speech-recognition output from the first natural language to a second natural language; determining an intent conveyed by the spoken utterance based on the canonical translation; and performing one or more responsive actions based on the intent; wherein the machine translation model was trained to map each of a plurality of semantically-related phrases in the first natural language to the same canonical translation in the second natural language, wherein the machine translation model was trained by: training the machine translation model using training data that was generated based on the plurality of semantically-related phrases in the first natural language and the canonical translation in the second natural language.
A method for operating a blood pressure measuring device by means of the following method steps: - executing a blood pressure measurement by means of the blood pressure measuring device composed of a cuff for being placed around an extremity, a pump for inflating the cuff, and a pressure sensor for registering the pressure within the cuff, wherein inflating of the cuff is performed in an inflating phase (Inf), and deflating of the pressure within the cuff is performed in a deflating phase (Def), - registering and storing the temporal pressure course (P meas ) within the cuff during the inflating phase and/or during the deflating phase in a control and storage unit , - extracting a pulse-like signal component (P osc ) from the temporal pressure course of the measured cuff pressure during the inflating phase and/or the deflating phase by a signal analysis within the control and storage unit , - signal analysis of the extracted pulse-like signal component (P osc ) within the control and storage unit by means of the following steps: - decomposing of the pulse-like signal component into data about individual periods for identifying individual pulse waves (PW), - combining the data of the respective individual pulse waves (PW) from values of at least one calculation function of a predefined calculation function amount for generating a respective classified individual pulse wave (PW), - transforming the respective classified individual pulse wave, - evaluating the transformed data for ascertaining hemodynamic parameters. - executing a blood pressure measurement by means of the blood pressure measuring device composed of a cuff for being placed around an extremity, a pump for inflating the cuff, and a pressure sensor for registering the pressure within the cuff, wherein inflating of the cuff is performed in an inflating phase (Inf), and deflating of the pressure within the cuff is performed in a deflating phase (Def), - registering and storing the temporal pressure course (P meas ) within the cuff during the inflating phase and/or during the deflating phase in a control and storage unit , - extracting a pulse-like signal component (P osc ) from the temporal pressure course of the measured cuff pressure during the inflating phase and/or the deflating phase by a signal analysis within the control and storage unit , - signal analysis of the extracted pulse-like signal component (P osc ) within the control and storage unit by means of the following steps: - decomposing of the pulse-like signal component into data about individual periods for identifying individual pulse waves (PW), - combining the data of the respective individual pulse waves (PW) from values of at least one calculation function of a predefined calculation function amount for generating a respective classified individual pulse wave (PW), - transforming the respective classified individual pulse wave, - evaluating the transformed data for ascertaining hemodynamic parameters.
A protective packaging structure for transporting compressible materials , the structure comprising: a containment unit having a first, lower shell and a second, upper shell , the first, lower shell including one or more wells for receiving a compressible material therein, each of the one or more wells having a surface feature to facilitate containment and reduce movement of the compressible material within the one or more wells , and the second, upper shell being configured to nest against the first, lower shell to form a closed container, the upper shell further having raised portions configured to define discrete geometries of the compressible material , wherein the first, lower shell and the second, upper shell are configured to attach to each other and create an interior volume within the closed container sufficient to exert a compressive force against the compressible material within the closed container and protect the compressive material from shock, vibration, deformation, or separation from agitation when inside the closed container; and wherein the raised portions each comprise substantially linear raised hatch marks arranged in a cross pattern to form rectangular geometries. a containment unit having a first, lower shell and a second, upper shell , the first, lower shell including one or more wells for receiving a compressible material therein, each of the one or more wells having a surface feature to facilitate containment and reduce movement of the compressible material within the one or more wells , and the second, upper shell being configured to nest against the first, lower shell to form a closed container, the upper shell further having raised portions configured to define discrete geometries of the compressible material , wherein the first, lower shell and the second, upper shell are configured to attach to each other and create an interior volume within the closed container sufficient to exert a compressive force against the compressible material within the closed container and protect the compressive material from shock, vibration, deformation, or separation from agitation when inside the closed container; and wherein the raised portions each comprise substantially linear raised hatch marks arranged in a cross pattern to form rectangular geometries.
An indoor unit of an air conditioner installed on a ceiling and blowing conditioned air into an indoor space , the indoor unit comprising: a plurality of outlet openings (24a to 24d) each provided with an air current blocking mechanism blocking a flow of the conditioned air; and a controller configured to control the air current blocking mechanism to execute airflow rotation by switching an operation between a full blowout mode of suppling the conditioned air from all the outlet openings (24a to 24d) to the indoor space , and a partial blowout mode of blocking flow blowing air of part of the outlet openings (24a to 24d) by the air current blocking mechanism , such that conditioned air is substantially not supplied to the indoor space from the blocked outlet openings (24a to 24d) and increasing a blowing wind speed at the remaining part of outlet openings (24a to 24d). a plurality of outlet openings (24a to 24d) each provided with an air current blocking mechanism blocking a flow of the conditioned air; and a controller configured to control the air current blocking mechanism to execute airflow rotation by switching an operation between a full blowout mode of suppling the conditioned air from all the outlet openings (24a to 24d) to the indoor space , and a partial blowout mode of blocking flow blowing air of part of the outlet openings (24a to 24d) by the air current blocking mechanism , such that conditioned air is substantially not supplied to the indoor space from the blocked outlet openings (24a to 24d) and increasing a blowing wind speed at the remaining part of outlet openings (24a to 24d). a full blowout mode of suppling the conditioned air from all the outlet openings (24a to 24d) to the indoor space , and a partial blowout mode of blocking flow blowing air of part of the outlet openings (24a to 24d) by the air current blocking mechanism , such that conditioned air is substantially not supplied to the indoor space from the blocked outlet openings (24a to 24d) and increasing a blowing wind speed at the remaining part of outlet openings (24a to 24d).
Automatic winder for a cover , comprising: - a first translationally mobile unit, comprising an assembly of at least one wheel, a second translationally mobile unit comprising an assembly of at least one wheel, and, in terms of translational movement, moving as one with the first mobile unit, - a winding tube mechanically connecting the first unit and the second unit and onto which a cover can be wound, and - a motor configured to drive the winding tube in rotation, of which the automatic winder further comprises - a transmission shaft , parallel to the winding tube , the motor further being configured to drive said automatic winder in translation, - the first translationally mobile unit comprising at least one drive wheel mechanically connected to the motor , - the second translationally mobile unit comprising at least one drive wheel mechanically connected to the motor via the transmission shaft ; characterized in that - the winding tube and the transmission shaft are coaxial. - a first translationally mobile unit, comprising an assembly of at least one wheel, a second translationally mobile unit comprising an assembly of at least one wheel, and, in terms of translational movement, moving as one with the first mobile unit, - a winding tube mechanically connecting the first unit and the second unit and onto which a cover can be wound, and - a motor configured to drive the winding tube in rotation, of which the automatic winder further comprises - a transmission shaft , parallel to the winding tube , the motor further being configured to drive said automatic winder in translation, - the first translationally mobile unit comprising at least one drive wheel mechanically connected to the motor , - the second translationally mobile unit comprising at least one drive wheel mechanically connected to the motor via the transmission shaft ; characterized in that - the winding tube and the transmission shaft are coaxial.
A catheter securement device , comprising: a lumen configured to receive a catheter ; a flexible hood having a base configured to attach to a surface of a patient ; an adhesive film attached to the base ; a catheter adapter coupled to the flexible hood , an inner surface of the catheter adapter comprising an annular wedge seal ; a septum disposed within the catheter adapter ; and an insertion target ; characterized in that the adhesive film encloses an internal environment of the flexible hood; and the insertion target is formed on the adhesive film and is in concentric alignment with the septum and the annular wedge seal . a lumen configured to receive a catheter ; a flexible hood having a base configured to attach to a surface of a patient ; an adhesive film attached to the base ; a catheter adapter coupled to the flexible hood , an inner surface of the catheter adapter comprising an annular wedge seal ; a septum disposed within the catheter adapter ; and an insertion target ; characterized in that the adhesive film encloses an internal environment of the flexible hood; and the insertion target is formed on the adhesive film and is in concentric alignment with the septum and the annular wedge seal .
High strength hot dip galvanised steel strip consisting, in mass percent, of the following elements: 0.10 - 0.21 % C 1.75 - 2.50 % Mn 0.04 - 0.60 % Si 0.20 - 1.40 % Al 0.001 - 0.025 % P 0.0011 - 0.0040 % B max 0.50 % Cr max 0.20 % Ti max 0.004 % Ca max 0.015 % N the balance being Fe and inevitable impurities. 0.10 - 0.21 % C 1.75 - 2.50 % Mn 0.04 - 0.60 % Si 0.20 - 1.40 % Al 0.001 - 0.025 % P 0.0011 - 0.0040 % B max 0.50 % Cr max 0.20 % Ti max 0.004 % Ca max 0.015 % N the balance being Fe and inevitable impurities.
Self-propelled construction machine, in particular a slipform paver, comprising a machine frame , a working means arranged on the machine frame , a single crawler track on the left in the working direction (A) and a single crawler track on the right in the working direction, a drive means for driving the left crawler track at a predetermined chain speed and the right crawler track at a predetermined chain speed, a control and arithmetic unit which is configured such that, on the basis of a distance (a) between a front reference point with respect to the machine frame in the working direction and a predetermined path , the chain speed of the left crawler track and/or the chain speed of the right crawler track is predetermined such that the front reference point moves on the predetermined path , characterised in that the control and arithmetic unit is further configured such that, during cornering of the construction machine, the control is corrected on the basis of a distance (b) between a rear reference point with respect to the machine frame in the working direction and the predetermined path such that the distance (b) between the rear reference point with respect to the machine frame in the working direction (A) and the predetermined path reduces. a machine frame , a working means arranged on the machine frame , a single crawler track on the left in the working direction (A) and a single crawler track on the right in the working direction, a drive means for driving the left crawler track at a predetermined chain speed and the right crawler track at a predetermined chain speed, a control and arithmetic unit which is configured such that, on the basis of a distance (a) between a front reference point with respect to the machine frame in the working direction and a predetermined path , the chain speed of the left crawler track and/or the chain speed of the right crawler track is predetermined such that the front reference point moves on the predetermined path , characterised in that the control and arithmetic unit is further configured such that, during cornering of the construction machine, the control is corrected on the basis of a distance (b) between a rear reference point with respect to the machine frame in the working direction and the predetermined path such that the distance (b) between the rear reference point with respect to the machine frame in the working direction (A) and the predetermined path reduces.
A method implemented by a service layer entity in an Internet of Things, IoT, communication system, the method comprising: receiving, from a first entity, a plurality of requests to communicate with a second entity; determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern; creating, based on determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern, a scripted request resource, wherein the scripted request resource enables the service layer entity to send scripted requests to the second entity on behalf of the first entity, and wherein the scripted request resource comprises one or more conditions for triggering the generation of one or more scripted requests; sending, to the second entity and based on determining that one or more of the conditions for triggering the generation of the one or more scripted requests has been satisfied, a scripted request; and sending, to the first entity, an indication that the scripted request resource has been created and an identifier associated with the scripted request resource. receiving, from a first entity, a plurality of requests to communicate with a second entity; determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern; creating, based on determining that two or more of the plurality of requests to communicate with the second entity form a repetitive request pattern, a scripted request resource, wherein the scripted request resource enables the service layer entity to send scripted requests to the second entity on behalf of the first entity, and wherein the scripted request resource comprises one or more conditions for triggering the generation of one or more scripted requests; sending, to the second entity and based on determining that one or more of the conditions for triggering the generation of the one or more scripted requests has been satisfied, a scripted request; and sending, to the first entity, an indication that the scripted request resource has been created and an identifier associated with the scripted request resource.
A vehicle heating system, comprising: - a heating device receptacle attached or attachable at a vehicle , - a fuel-operated heating device , disposed in the heating device receptacle , - a fuel tank for the heating device disposed in the heating device receptacle , characterized in that a flexible covering at least partially covering a vehicle is provided at the heating device receptacle and in that the medium transferred from the heating device is released into an interior covered by the covering , and/or that the medium transferred from the heating device is released into medium conducting ducts provided in the covering - a heating device receptacle attached or attachable at a vehicle , - a fuel-operated heating device , disposed in the heating device receptacle , - a fuel tank for the heating device disposed in the heating device receptacle ,
A method for providing signaling used for position determination in a positioning system, comprising: generating, at a first transmitter, a first range block that includes a first ranging signal; sending, from the first transmitter, the first range block, wherein the first range block is sent in a first predefined slot of a plurality of predefined slots of a first transmit frame, and wherein no positioning data is sent from the first transmitter in the first predefined slot of the first transmit frame when the first range block is sent; generating, at the first transmitter, a first hybrid block that includes a first positioning signal, wherein the first positioning signal includes positioning data that includes data specifying a location of the first transmitter; and sending, from the first transmitter, the first hybrid block in a second transmit frame that is disjoint from the first transmit frame, and characterised in that the positioning data further includes data of pressure and/or temperature in the proximity of the transmitter; and wherein the positioning signal has higher order modulation than the ranging signal. generating, at a first transmitter, a first range block that includes a first ranging signal; sending, from the first transmitter, the first range block, wherein the first range block is sent in a first predefined slot of a plurality of predefined slots of a first transmit frame, and wherein no positioning data is sent from the first transmitter in the first predefined slot of the first transmit frame when the first range block is sent; generating, at the first transmitter, a first hybrid block that includes a first positioning signal, wherein the first positioning signal includes positioning data that includes data specifying a location of the first transmitter; and sending, from the first transmitter, the first hybrid block in a second transmit frame that is disjoint from the first transmit frame, and characterised in that the positioning data further includes data of pressure and/or temperature in the proximity of the transmitter; and wherein the positioning signal has higher order modulation than the ranging signal.