mhurhangee/patent-ind-claim-en huggingface dataset:
Drive device for a vehicle axle, in particular a rear axle (HA), of a two-track vehicle with an electric drive, wherein an electric machine (EM1, EM2) is associated with every vehicle wheel of the vehicle axle (HA), the electric machine shafts of which electric machine can be drivingly connected, by means of a first and a second shifting element (SE1, SE2), to a first and a second flange shaft of the vehicle wheels , and wherein in a first transmission gear (I), the first and the second shifting element (SE1, SE2) are shifted and the electric machine shafts output directly to the flange shafts of the vehicle wheels via the first and the second shifting elements (SE1, SE2), wherein the vehicle axle (HA) has a transverse differential which, on the output side, outputs to the flange shafts of the vehicle wheels and, on the input side, can be drivingly connected to the electric machine shafts by means of a third and a fourth shifting element (SE3, SE4), and that in a second transmission gear (II), the third and/or the fourth shifting elements (SE3, SE4) are closed and the first and/or second electric machine shafts output to the flange shaft via the third and/or fourth shifting element (SE3, SE4) and the transverse differential , wherein, when the first transmission gear (I) is shifted, a wheel-selective drive takes place, in which a first torque flow (M 1 ) from the first electric machine (EM1) is transmitted via the first shifting element (SE1) to the first flange shaft and independently thereof, i.e. drivingly decoupled therefrom, a second torque flow (M 2 ) from the second electric machine (EM2) is transmitted via the second shifting element (SE2) to the second flange shaft , and, when the first transmission gear (I) is shifted, the third and fourth shifting elements (SE3, SE4) are open, characterised in that , for a redistribution of the drive torques acting on the left and right vehicle wheels that takes place with shifted first transmission gear (I), the third or fourth shifting element (SE3, SE4) is closed, as a result of which the drive torque generated by the first or second electric machine (EM1, EM2) is allocated into a partial drive torque (M 1a ), which is transmitted via the first or second shifting element (SE1, SE2) directly to the first or second flange shaft , and into a partial drive torque (M 1b ), which is transmitted via the third or fourth shifting element (SE3, SE4) to the transverse differential and is allocated there uniformly onto the left and right vehicle wheels .
A recording medium comprising: a base material ; a first color developing layer that is laminated on the base material , and absorbs near infrared laser light (LNIR) having a given wavelength to develop a color; one or more photothermal conversion layers that are laminated closer to an incident side of the near infrared laser light (LNIR) than the first color developing layer , transmit visible light, and absorb the near infrared laser light (LNIR) for photothermal conversion; a second color developing layer that is laminated closer to the incident side of the near infrared laser light (LNIR) than the first color developing layer , transmits visible light and the near infrared laser light (LNIR), and develops a color by heat converted by the one or more photothermal conversion layers , and a binder layer for holding the first color developing layer , the photothermal conversion layers and the second color developing layer at given positions while binding the first color developing layer and the second color developing layer . a base material ; a first color developing layer that is laminated on the base material , and absorbs near infrared laser light (LNIR) having a given wavelength to develop a color; one or more photothermal conversion layers that are laminated closer to an incident side of the near infrared laser light (LNIR) than the first color developing layer , transmit visible light, and absorb the near infrared laser light (LNIR) for photothermal conversion; a second color developing layer that is laminated closer to the incident side of the near infrared laser light (LNIR) than the first color developing layer , transmits visible light and the near infrared laser light (LNIR), and develops a color by heat converted by the one or more photothermal conversion layers , and a binder layer for holding the first color developing layer , the photothermal conversion layers and the second color developing layer at given positions while binding the first color developing layer and the second color developing layer .
A female quick coupling engageable under pressure, comprising an outer tubular support body which extends along an axis (L) of the coupling and has a front end and a rear end , a hollow valve body supported inside the support body and having an inlet path distal from the front end and an outlet path proximal to the front end of the support body and an obturator slidable in the valve body in the direction of the axis (L) of the coupling so as to open and close the outlet path , wherein said obturator comprises a mushroom head and a housing and support body for the guided sliding of said mushroom head , said housing and support body having externally an occlusion element engageable in a seat of the valve body so as to close said outlet path , and wherein there is provided a means for deferring the movement of said housing and support body relative to said mushroom head , said housing and support body having a rear end distal from said front end of said support body and an open front end proximal to said front end of said support body from which said mushroom head comes out, and wherein the mushroom head is adapted to be retracted towards the inside of the housing and support body , due to the effect of interference with the obturator of a male coupling, before the start of the retraction of the housing body towards the rear end of the support body .
A secondary battery including an electrode assembly comprising a unit body stack portion which consists of a stack of at least two basic unit bodies each comprising a 4-layer structure in which a first electrode , a first separator , a second electrode and a second separator are sequentially stacked, wherein coating materials having adhesive force are applied to respective surfaces of the first and second separators, and wherein a basic unit body is adhered to its adjacent basic unit body in the unit body stack portion; wherein in the unit body stack portion, the adhesive force between the basic unit body (1 10a) and its adjacent basic unit body is equal to or greater than adhesive force between the first electrode and the first separator in the basic unit body ; characterized in that it is obtained by preparing a basic unit body which forms a 4 layers structure in which a first electrode , a first separator , a second electrode and a second separator are sequentially stacked (S100); preparing a unit body stack portion by repeatedly stacking the basic unit body (S200); accommodating the electrode assembly including the unit body stack portion in a battery case, then injecting electrolyte and sealing the battery case (S300); and making a second separator of the one basic unit body be adhered to a first electrode of its adjacent basic unit body in the unit body stack portion by applying heat and pressure (S400); wherein coating materials having adhesive force are applied to respective surfaces of the first and second separators wherein the temperature of the step (S400) is 45°C to 85°C, and wherein, after the step S400, a primary formation process is performed. wherein coating materials having adhesive force are applied to respective surfaces of the first and second separators, and wherein a basic unit body is adhered to its adjacent basic unit body in the unit body stack portion; wherein in the unit body stack portion, the adhesive force between the basic unit body (1 10a) and its adjacent basic unit body is equal to or greater than adhesive force between the first electrode and the first separator in the basic unit body ; characterized in that it is obtained by preparing a basic unit body which forms a 4 layers structure in which a first electrode , a first separator , a second electrode and a second separator are sequentially stacked (S100); preparing a unit body stack portion by repeatedly stacking the basic unit body (S200); accommodating the electrode assembly including the unit body stack portion in a battery case, then injecting electrolyte and sealing the battery case (S300); and making a second separator of the one basic unit body be adhered to a first electrode of its adjacent basic unit body in the unit body stack portion by applying heat and pressure (S400); wherein coating materials having adhesive force are applied to respective surfaces of the first and second separators wherein the temperature of the step (S400) is 45°C to 85°C, and wherein, after the step S400, a primary formation process is performed.
Method for displaying the properties of a source code element of a computer program being edited, wherein said program is written in an object type, a source code element taking the form of an object, method implemented in a software development application, characterised in that it comprises: - A step for creating a syntax hierarchisation tree of said source code, comprising, for each element of said source code, at least one parent element; - a step for memorizing said syntax tree; - A step for selecting , within said source code, said source code element; - A step for searching , within said source code, a set of related code elements of said selected source code element, said elements of said set comprising named properties, said step for searching comprising a step for identifying, within said memorized syntax tree of said at least one parent element of said selected element; - A step for creating a data structure comprising said properties of said code elements of said set of code elements; - A step for grouping , within said data structure, said properties in function of their name; - A step for displaying said properties grouped within a portion of a means of displaying said source code. - A step for creating a syntax hierarchisation tree of said source code, comprising, for each element of said source code, at least one parent element; - a step for memorizing said syntax tree; - A step for selecting , within said source code, said source code element; - A step for searching , within said source code, a set of related code elements of said selected source code element, said elements of said set comprising named properties, said step for searching comprising a step for identifying, within said memorized syntax tree of said at least one parent element of said selected element; - A step for creating a data structure comprising said properties of said code elements of said set of code elements; - A step for grouping , within said data structure, said properties in function of their name; - A step for displaying said properties grouped within a portion of a means of displaying said source code.
Apparatus for providing a sensor signal (V_PS) for evaluation for a braking system of a vehicle , wherein the apparatus has the following features: a first signal path for outputting the sensor signal (V_PS) to a first output interface to a first converter device , wherein the first signal path has first electronic components (C1a, R2a, R3a), wherein the first signal path is electrically connected to an input interface which is connectable to a sensor of the vehicle ; a first test device for applying a first test signal (V_TEST_a) to the sensor signal (V_PS) in the first signal path , wherein the first test device can be or is electrically connectable to the first signal path ; characterized in that the apparatus has the following further features: a second signal path for outputting the sensor signal (V_PS) to a second output interface to a second converter device , wherein the second signal path has second electronic components (C2b, R2b, R3b), wherein the second signal path is electrically connected to the input interface which is connectable to the sensor of the vehicle ; and a second test device for applying a second test signal (V_TEST_b) to the sensor signal (V_PS) in the second signal path , wherein the second test device can be or is electrically connected to the second signal path . a first signal path for outputting the sensor signal (V_PS) to a first output interface to a first converter device , wherein the first signal path has first electronic components (C1a, R2a, R3a), wherein the first signal path is electrically connected to an input interface which is connectable to a sensor of the vehicle ; a first test device for applying a first test signal (V_TEST_a) to the sensor signal (V_PS) in the first signal path , wherein the first test device can be or is electrically connectable to the first signal path ; characterized in that the apparatus has the following further features: a second signal path for outputting the sensor signal (V_PS) to a second output interface to a second converter device , wherein the second signal path has second electronic components (C2b, R2b, R3b), wherein the second signal path is electrically connected to the input interface which is connectable to the sensor of the vehicle ; and a second test device for applying a second test signal (V_TEST_b) to the sensor signal (V_PS) in the second signal path , wherein the second test device can be or is electrically connected to the second signal path . a second signal path for outputting the sensor signal (V_PS) to a second output interface to a second converter device , wherein the second signal path has second electronic components (C2b, R2b, R3b), wherein the second signal path is electrically connected to the input interface which is connectable to the sensor of the vehicle ; and a second test device for applying a second test signal (V_TEST_b) to the sensor signal (V_PS) in the second signal path , wherein the second test device can be or is electrically connected to the second signal path .
A fastening device, in particular for fastening a shielding part to a partnered fastening part, having: - a sleeve with a through opening for a fastener ; - at least two bridging elements , which are equipped and embodied with outer regions in a radial direction (R) for indirect or direct contact with the opposing outsides of the shielding part and are fastened to the sleeve with inner regions in the radial direction (R); - a damping element is positioned between the bridging elements in an axial direction (A) and outside of the sleeve in the radial direction (R), characterized in that - the damping element is embodied as a spring element and has at least one spring arm , which is embodied as resiliently flexible in the radial direction (R) and is equipped and embodied to cooperate in a supporting way with a hole rim of a hole of the shielding part . - a sleeve with a through opening for a fastener ; - at least two bridging elements , which are equipped and embodied with outer regions in a radial direction (R) for indirect or direct contact with the opposing outsides of the shielding part and are fastened to the sleeve with inner regions in the radial direction (R); - a damping element is positioned between the bridging elements in an axial direction (A) and outside of the sleeve in the radial direction (R), characterized in that - the damping element is embodied as a spring element and has at least one spring arm , which is embodied as resiliently flexible in the radial direction (R) and is equipped and embodied to cooperate in a supporting way with a hole rim of a hole of the shielding part .
A method for transmitting a status protocol data unit, PDU, in a mobile communications system, the method comprising: constructing a status PDU providing positive and/or negative acknowledgements of acknowledged mode data, AMD, PDUs or portions of AMD PDUs by considering available resources, such that the constructed status PDU fits to a total size of the available resources indicated by a lower layer; and transmitting the constructed status PDU to a peer radio link control, RLC, entity, wherein the total size of the available resources refers to a total size of RLC PDUs. constructing a status PDU providing positive and/or negative acknowledgements of acknowledged mode data, AMD, PDUs or portions of AMD PDUs by considering available resources, such that the constructed status PDU fits to a total size of the available resources indicated by a lower layer; and transmitting the constructed status PDU to a peer radio link control, RLC, entity, wherein the total size of the available resources refers to a total size of RLC PDUs.
A method performed by a user equipment, UE , the method comprising: at the UE , maintaining a count of transition indication messages sent by the UE while in a first radio resource control, RRC state, wherein the UE is inhibited from sending any more than a predetermined maximum number of transition indication messages while the UE is in the first RRC state; entering from the first RRC state a more battery intensive RRC state than the first RRC state as a result of having sent by the UE a transition indication message while in the first RRC state; and resetting the count of the transition indication messages responsive to entering the more battery intensive RRC state. at the UE , maintaining a count of transition indication messages sent by the UE while in a first radio resource control, RRC state, wherein the UE is inhibited from sending any more than a predetermined maximum number of transition indication messages while the UE is in the first RRC state; entering from the first RRC state a more battery intensive RRC state than the first RRC state as a result of having sent by the UE a transition indication message while in the first RRC state; and resetting the count of the transition indication messages responsive to entering the more battery intensive RRC state.
A method of producing a component , comprising: creating a dissolvable ceramic material mold , wherein creating the dissolvable ceramic mold comprises printing a dissolvable ceramic combined core and mold in an additive manufacturing process; casting a metallic material in the dissolvable ceramic material mold ; creating the component ; and dissolving the dissolvable ceramic material, wherein dissolving the dissolvable ceramic material comprises dissolving the printed dissolvable ceramic combined core and mold with water. creating a dissolvable ceramic material mold , wherein creating the dissolvable ceramic mold comprises printing a dissolvable ceramic combined core and mold in an additive manufacturing process; casting a metallic material in the dissolvable ceramic material mold ; creating the component ; and dissolving the dissolvable ceramic material, wherein dissolving the dissolvable ceramic material comprises dissolving the printed dissolvable ceramic combined core and mold with water.
An information notification method, comprising: determining at least two resource groups and channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, the CSI configuration information is used to indicate a CSI candidate set, the CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM, and the at least two preset CSI tables have different ranges of signal-to-noise ratios; and notifying a user equipment, UE, of the at least two resource groups and the CSI configuration information corresponding to each of the resource groups. determining at least two resource groups and channel state information, CSI, configuration information corresponding to each of the resource groups, wherein each of the resource groups comprises a subframe set and a carrier, the CSI configuration information is used to indicate a CSI candidate set, the CSI candidate set is a preset CSI table of a plurality of preset CSI tables, and at least one of the at least two preset CSI tables comprises 256 quadrature amplitude modulation, QAM, and the at least two preset CSI tables have different ranges of signal-to-noise ratios; and notifying a user equipment, UE, of the at least two resource groups and the CSI configuration information corresponding to each of the resource groups.
A system configured to predict gastrointestinal impairment, the system comprising: an audio data collection device configured to collect audio data wherein the audio data comprises intestinal sounds collected from a patient after a surgical procedure, a computer device configured to receive and process the audio data, wherein the audio data is obtained before clinical signs and symptoms of a gastrointestinal impairment develop, wherein the computer device is configured to compare the processed audio data to identified spectral events being defined by predefined parameters and predictive of subsequent gastrointestinal impairment, wherein the predefined parameters include: i) frequency of the predefined spectral event and the frequency is in the range of approximately 900 to 20,000 Hertz; ii) duration of the predefined spectral event and the duration is in the range of approximately 5 to 600 milliseconds; iii) minimum separation in time of the predefined spectral event from other spectral events and the minimum separation in time is approximately 20 milliseconds; iv) signal-to-noise ratio occupancy that is greater than about 70%; v) signal-to-noise ratio threshold of approximately 10 decibels; vii) noise power estimation parameters including a block size of 1198 milliseconds, a hop size of 600 and a percentile of 20%; wherein the intestinal sounds are collected on the first post-operative day; and wherein the computer device is further configured to predict the likelihood of subsequent gastrointestinal impairment based on the comparison of the processed audio data to the identified spectral events. an audio data collection device configured to collect audio data wherein the audio data comprises intestinal sounds collected from a patient after a surgical procedure, a computer device configured to receive and process the audio data, wherein the audio data is obtained before clinical signs and symptoms of a gastrointestinal impairment develop, wherein the computer device is configured to compare the processed audio data to identified spectral events being defined by predefined parameters and predictive of subsequent gastrointestinal impairment, wherein the predefined parameters include: i) frequency of the predefined spectral event and the frequency is in the range of approximately 900 to 20,000 Hertz; ii) duration of the predefined spectral event and the duration is in the range of approximately 5 to 600 milliseconds; iii) minimum separation in time of the predefined spectral event from other spectral events and the minimum separation in time is approximately 20 milliseconds; iv) signal-to-noise ratio occupancy that is greater than about 70%; v) signal-to-noise ratio threshold of approximately 10 decibels; vii) noise power estimation parameters including a block size of 1198 milliseconds, a hop size of 600 and a percentile of 20%; wherein the intestinal sounds are collected on the first post-operative day; and wherein the computer device is further configured to predict the likelihood of subsequent gastrointestinal impairment based on the comparison of the processed audio data to the identified spectral events.