mhurhangee/patent-ind-claim-en huggingface dataset:
A slide element , in particular a sliding door or a lift and slide door, comprising a frame ; a leaf which can be displaced with respect to the frame ; and a drive device for the motorized displacement of the leaf between an open position and a closed position, wherein the drive device is integrated into the frame and comprises an electric motor , wherein a receiver , in which the electric motor is completely received, is formed in a vertical section, namely a vertical frame part , of the frame , characterized in that the drive device comprises a deflection gear , which is integrally formed with the electric motor , to deflect a torque of the electric motor by at least substantially 90°. wherein the drive device is integrated into the frame and comprises an electric motor , wherein a receiver , in which the electric motor is completely received, is formed in a vertical section, namely a vertical frame part , of the frame , characterized in that the drive device comprises a deflection gear , which is integrally formed with the electric motor , to deflect a torque of the electric motor by at least substantially 90°.
Conductive article made from a composite material comprising: - from 50 to 99 wt% of a first polyethylene resin as based on the total weight of said composite material, wherein the first polyethylene resin has a melt index MI2 of at most 0.45 g/10 min as determined according to ISO 1133 at 190 °C under a load of 2.16 kg, and a density of at least 0.920 g/cm 3 and of at most 0.980 g/cm 3 as determined according to ISO 1183 at a temperature of 23 °C; and - from 0.2 to 10 wt% of carbon particles as based on the total weight of said composite material as determined according to ISO 11358 selected from nanographene, carbon nanotubes or any combination thereof; characterized in that the composite material further comprises from 0.10 to 0.48 wt% of polyethylene glycol as based on the total weight of the composite material, and in that said polyethylene glycol is selected to have a weight average molecular weight Mw of at most 20,000 g/mol. - from 50 to 99 wt% of a first polyethylene resin as based on the total weight of said composite material, wherein the first polyethylene resin has a melt index MI2 of at most 0.45 g/10 min as determined according to ISO 1133 at 190 °C under a load of 2.16 kg, and a density of at least 0.920 g/cm 3 and of at most 0.980 g/cm 3 as determined according to ISO 1183 at a temperature of 23 °C; and - from 0.2 to 10 wt% of carbon particles as based on the total weight of said composite material as determined according to ISO 11358 selected from nanographene, carbon nanotubes or any combination thereof;
A dose of VX-745 sufficient to inhibit cytokine signaling while not substantially affecting cytokine production, for use in the treatment of a neurologic disorder in a patient in need thereof, wherein the cytokine is IL-1beta; wherein the neurologic disorder is selected from Mild Cognitive Impairment, Vascular Dementia, Lewy Body Dementia; Parkinson's Disease; Functional recovery after Stroke; Fronto-Temporal dementia (FTD); Cognitive Frailty; and Huntington's Disease, wherein the dose results in a patient blood concentration that is less than half of that required to inhibit cytokine production. wherein the neurologic disorder is selected from Mild Cognitive Impairment, Vascular Dementia, Lewy Body Dementia; Parkinson's Disease; Functional recovery after Stroke; Fronto-Temporal dementia (FTD); Cognitive Frailty; and Huntington's Disease, wherein the dose results in a patient blood concentration that is less than half of that required to inhibit cytokine production.
A server heat dissipation system, comprising a liquid cooled server cabinet (I), the liquid cooled server cabinet (I)comprises a cabinet body , multiple liquid cooled servers provided inside the cabinet body , a liquid cooling device (II) to perform direct liquid cooling to the liquid cooled servers , the liquid cooling device (II) being disposed along an exterior of the cabinet body and comprising: a liquid heat dissipater provided for performing heat dissipation to server chips ; a distributor is connected with the liquid heat dissipater by a plurality of liquid inlet pipes ; a collector connected with the liquid heat dissipater by a plurality of liquid outlet pipes ; and a primary heat transfer medium , which flows into the liquid heat dissipater through the distributor and the liquid inlet pipes , and then flows out from the liquid heat dissipater through the liquid outlet pipes , and then is collected by the collector ; and the auxiliary heat dissipation device (III) to perform auxiliary heat dissipation to the liquid cooled servers . a liquid heat dissipater provided for performing heat dissipation to server chips ; a distributor is connected with the liquid heat dissipater by a plurality of liquid inlet pipes ; a collector connected with the liquid heat dissipater by a plurality of liquid outlet pipes ; and a primary heat transfer medium , which flows into the liquid heat dissipater through the distributor and the liquid inlet pipes , and then flows out from the liquid heat dissipater through the liquid outlet pipes , and then is collected by the collector ; and the auxiliary heat dissipation device (III) to perform auxiliary heat dissipation to the liquid cooled servers .
A method of authenticating a user or speaker, comprising: obtaining an input speech signal and user credentials identifying the user or speaker, the input speech signal including a single-channel or multi-channel speech signal; extracting a speech voiceprint from the input speech signal; retrieving a reference voiceprint associated to the user credentials; determining a voiceprint correspondence between the speech voiceprint and the reference voiceprint; authenticating the user or speaker depending on the voiceprint correspondence; performing a score calibration σ ( x ) of the user or speaker authentication with x representing a score of the user or speaker authentication, wherein the closer to 1 is σ ( x ), the more successful the user or speaker authentication is determined, and the closer to 0 is σ ( x ), the less successful the user or speaker authentication is determined; and updating the reference voiceprint depending on the speech voiceprint corresponding to the authenticated user or speaker and on whether a score calibration σ ( x ) of the user or speaker authentication is above or below a predefined calibration threshold Ψ, based on the following formula: wherein e t s corresponds to the updated reference voiceprint, e t = 1 s corresponds to the reference voiceprint to be updated, v t s ′ corresponds to the speech voiceprint, and λ ( σ ( x ), Ψ, γ) corresponds to a remembering factor determined based on following formula: λ σ x , Ψ , γ = max γ − 1 σ x + γ 1 −Ψ γ−Ψ γ wherein γ is a predefined heuristic factor indicating a minimum importance of e t − 1 s during the updating. obtaining an input speech signal and user credentials identifying the user or speaker, the input speech signal including a single-channel or multi-channel speech signal; extracting a speech voiceprint from the input speech signal; retrieving a reference voiceprint associated to the user credentials; determining a voiceprint correspondence between the speech voiceprint and the reference voiceprint; authenticating the user or speaker depending on the voiceprint correspondence; performing a score calibration σ ( x ) of the user or speaker authentication with x representing a score of the user or speaker authentication, wherein the closer to 1 is σ ( x ), the more successful the user or speaker authentication is determined, and the closer to 0 is σ ( x ), the less successful the user or speaker authentication is determined; and updating the reference voiceprint depending on the speech voiceprint corresponding to the authenticated user or speaker and on whether a score calibration σ ( x ) of the user or speaker authentication is above or below a predefined calibration threshold Ψ, based on the following formula: wherein e t s corresponds to the updated reference voiceprint, e t = 1 s corresponds to the reference voiceprint to be updated, v t s ′ corresponds to the speech voiceprint, and λ ( σ ( x ), Ψ, γ) corresponds to a remembering factor determined based on following formula: λ σ x , Ψ , γ = max γ − 1 σ x + γ 1 −Ψ γ−Ψ γ wherein γ is a predefined heuristic factor indicating a minimum importance of e t − 1 s during the updating.
A method for operating a cleaning system that comprises at least one selftraveling cleaning device , wherein the cleaning device travels in an environment based on an environment map and carries out cleaning activities in said environment, wherein the cleaning device accesses a database , in which multiple cleaning activities to be carried out in at least one environment section (5-10) of the environment are stored, wherein a user accesses the database and defines in advance at least one randomly occurring event , which changes a cleaning status of at least one environment section (5-10) and in dependence on the occurrence of which at least one certain cleaning activity should be carried out in at least one certain environment section (5-10), wherein the user defines an event-dependent activity scenario for the defined event in advance, namely before the occurrence of the event, wherein said activity scenario contains a defined allocation of a certain cleaning activity to be carried out to a certain environment section (5-10), in which the cleaning activity should be carried out, and wherein the activity scenario is carried out by at least one cleaning device upon the subsequent occurrence of the defined event, characterized in that the occurrence of the defined event is detected by means of a detection device in order to inform the system automatically, wherein a control unit of the system retrieves a defined activity scenario for the event , from the database and controls the implementation of the at least one cleaning activity contained in this activity scenario, wherein the user determines an assignment of certain detection devices to defined activity scenarios , wherein for each activity scenario it is determined by means of which detection device the occurrence of a defined event is determined, and wherein at least one cleaning activity is also scheduled time-dependently in addition to the defined event-dependent activity scenario , wherein it is decided in accordance with predefined rules whether only the event-dependent activity scenario or only the time-dependently scheduled cleaning activity is carried out in case the time of an occurrence of a defined event falls short of a predefined minimum time interval from a defined time for carrying out the time-dependently scheduled cleaning activity for the same environment section (5-10).
An apparatus for a high-efficiency, HE, user station , STA, the apparatus comprising transceiver circuitry and hardware processing circuitry , the hardware processing circuitry to configure the transceiver circuitry to: receive , from a HE access point , AP, a beacon frame for a beacon interval, the beacon frame comprising an information element indicating a transmission time for a first random access trigger frame , TF, with a first allocation of channel resources for random access contention by STAs ; enter a mode of reduced operation for a doze time after decoding the beacon frame 510 and before reception of the first TF ; receive the first random access TF comprising a cascade indication field and an indication of the first allocation of channel resources for random access contention by STAs during a first uplink transmission period of the beacon interval, wherein the first allocation of channel resources comprises one or more random access allocations indicated by values of association identifications, AIDs; determine whether the one or more random access allocations are indicated, wherein the determination is based on the values of the AIDs being zero to indicate a random access allocation; and when the one or more random access allocations are determined to be indicated, select a random access allocation of the one or more random access allocations, and configure the transceiver circuitry to transmit the packet in accordance with the selected random access allocation. receive , from a HE access point , AP, a beacon frame for a beacon interval, the beacon frame comprising an information element indicating a transmission time for a first random access trigger frame , TF, with a first allocation of channel resources for random access contention by STAs ; enter a mode of reduced operation for a doze time after decoding the beacon frame 510 and before reception of the first TF ; receive the first random access TF comprising a cascade indication field and an indication of the first allocation of channel resources for random access contention by STAs during a first uplink transmission period of the beacon interval, wherein the first allocation of channel resources comprises one or more random access allocations indicated by values of association identifications, AIDs; determine whether the one or more random access allocations are indicated, wherein the determination is based on the values of the AIDs being zero to indicate a random access allocation; and when the one or more random access allocations are determined to be indicated, select a random access allocation of the one or more random access allocations, and configure the transceiver circuitry to transmit the packet in accordance with the selected random access allocation.
An apparatus for punching moving material webs, having the following features: at least two punching units , each punching unit has at least one punching tool , which interacts with a rotatably mounted back-pressure cylinder that can be driven, which is arranged on a rotatably mounted drive shaft that can be driven and of which the position can be adjusted in the direction of the longitudinal axis of the latter and which can be locked in various working positions, each punching tool has a cylindrical base , on the periphery of which a punching strip which is provided with at least one punching shape is fixed such that it can be replaced, characterized in that the at least two punching units are arranged one after another in the direction of movement (A) of the material web and that each punching unit has a guide extending in the direction of the axis of rotation of the drive shaft , separate from the latter, along which guide the punching tools are guided during adjustment and which extends parallel to the longitudinal axis of the back-pressure cylinder . at least two punching units , each punching unit has at least one punching tool , which interacts with a rotatably mounted back-pressure cylinder that can be driven, which is arranged on a rotatably mounted drive shaft that can be driven and of which the position can be adjusted in the direction of the longitudinal axis of the latter and which can be locked in various working positions, each punching tool has a cylindrical base , on the periphery of which a punching strip which is provided with at least one punching shape is fixed such that it can be replaced, characterized in that the at least two punching units are arranged one after another in the direction of movement (A) of the material web and that each punching unit has a guide extending in the direction of the axis of rotation of the drive shaft , separate from the latter, along which guide the punching tools are guided during adjustment and which extends parallel to the longitudinal axis of the back-pressure cylinder .
A sodium ion battery material comprising the formula Na a Li b Ni c -Mn d Fe e Ti f O g wherein 0.70 < a < 1.0 0.01 ≤ b < 0.2 0.10 < c < 0.37 0.20 < d < 0.5 0.00 ≤ e < 0.3 0.10 < f < 0.2 1.85 ≤ g ≤ 2.2, Wherein c + d + e + f g < 2 and wherein the capacity of the material decreases by 20% or less after 100 cycles between from 2.0 and 4.3 V in a Na anode half-cell. 0.70 < a < 1.0 0.01 ≤ b < 0.2 0.10 < c < 0.37 0.20 < d < 0.5 0.00 ≤ e < 0.3 0.10 < f < 0.2 1.85 ≤ g ≤ 2.2,
A stability control system for a four-wheel drive electric vehicle, comprising a vehicle controller and a signal detection sensor, wherein the vehicle controller comprises a first stability control unit and a second stability control unit; the signal detection sensor is configured to detect lateral acceleration signals; the first stability control unit is configured to judge whether the lateral acceleration is less than a preset acceleration threshold, and continue to judge whether the lateral acceleration is less than the acceleration threshold when the lateral acceleration is less than the acceleration threshold; the first stability control unit is further configured to calculate a lateral load transfer ratio according to the lateral acceleration signals when the lateral acceleration is equal to or greater than the acceleration threshold, wherein the lateral load transfer ratio is defined as a ratio of the vertical load difference of the left and right tires to the total vertical load of the whole vehicle, and to determine the state of the vehicle according to the lateral load transfer ratio to obtain at least one of a first braking force signal, a second braking force signal, a first logic signal and a second logic signal; the second stability control unit is configured to control the body of the electric vehicle to keep stable when obtaining the first logic signal; the first stability control unit is further configured to control a motor of the electric vehicle via a motor controller of the electric vehicle to apply braking force to an outside front wheel of the electric vehicle when obtaining the first braking force signal and the second logic signal; and the first stability control unit is further configured to control motors of the electric vehicle via motor controllers of the electric vehicle to apply braking force to the outside front wheel of the electric vehicle and an inside rear wheel of the electric vehicle when obtaining the second braking force signal and the second logic signal.
A system for ultrasonically ablating or checking a zone of the heart, comprising: ▪ a means for measuring the electrical activity of the heart for acquiring at least one frequency of an electrocardiogram (ECG); ▪ a phase grating coupled to the means for measuring the electrical activity of the heart for generating, in synchronisation with the acquired frequency of the electrocardiogram of the heart (ECG), a focused beam of ultrasound signals (F us ) to at least one targeted zone (Z c ) of the heart; ▪ a positioning system coupled to the means for measuring the electrical activity of the heart and coupled to the phase grating (RES_US) so as to feedback control the position of at least one focused zone of at least one focused beam of ultrasound signals (F us ) to the position of the at least one targeted zone (Z c ), ▪ an MRI imaging system coupled to the means for measuring the electrical activity of the heart and configured to carry out active dynamic check of a temperature and tissue deformation in the targeted zone (Z c ) and/or in the neighbouring zones of the targeted zone (Z c ); ▪ a device for measuring a cavitation level in the targeted zone (Z c ); ▪ a calculator configured to dynamically adjust, while generating the beam of ultrasound signals (F us ), the characteristics of said beam of ultrasound signals (F us ) as a function of the cavitation level and as a function of the temperature and/or tissue deformation in the focused zone in response to generating the beam of ultrasound signals (F us ). ▪ a means for measuring the electrical activity of the heart for acquiring at least one frequency of an electrocardiogram (ECG); ▪ a phase grating coupled to the means for measuring the electrical activity of the heart for generating, in synchronisation with the acquired frequency of the electrocardiogram of the heart (ECG), a focused beam of ultrasound signals (F us ) to at least one targeted zone (Z c ) of the heart; ▪ a positioning system coupled to the means for measuring the electrical activity of the heart and coupled to the phase grating (RES_US) so as to feedback control the position of at least one focused zone of at least one focused beam of ultrasound signals (F us ) to the position of the at least one targeted zone (Z c ), ▪ an MRI imaging system coupled to the means for measuring the electrical activity of the heart and configured to carry out active dynamic check of a temperature and tissue deformation in the targeted zone (Z c ) and/or in the neighbouring zones of the targeted zone (Z c ); ▪ a device for measuring a cavitation level in the targeted zone (Z c ); ▪ a calculator configured to dynamically adjust, while generating the beam of ultrasound signals (F us ), the characteristics of said beam of ultrasound signals (F us ) as a function of the cavitation level and as a function of the temperature and/or tissue deformation in the focused zone in response to generating the beam of ultrasound signals (F us ).
A pant configured for enhanced mobility, comprising: a first leg portion and a second leg portion, each of the first leg portion and the second leg portion comprising a front panel and a rear panel ; at least a first stretch panel located on the rear panel of the first leg portion ; and at least a second stretch panel located on the rear panel of the second leg portion; wherein the rear panels of the first leg portion and second leg portion are each divided into an upper region and a lower region by a substantially diagonal seam , the substantially diagonal seam extending from a point at a rear seam of the pant downward to a point at an outer seam of the leg portion; wherein the point at the rear seam of the pant is located between 152.4 mm (6 inches) and 254 mm (10 inches) below the bottom edge of the waistband and the point at the outer seam of the leg portion is located between 304.8 mm (12 inches) and 609.6 mm (24 inches) below a bottom edge of a waistband ; a lower edge of each of the stretch panels coincides with each of the substantially diagonal seams and extends along the entire length of the diagonal seam ; each of the stretch panels has an outer edge that coincides with the outer seam of the leg; and the front panels of the first and second leg portions do not contain any stretch panels; wherein each of the stretch panels provides a wearer with enhanced mobility when performing one or more of the following motions: (a) bending over, (b) squatting, (c) kneeling and twisting, (d) reaching forward and up, and (e) big step. a first leg portion and a second leg portion, each of the first leg portion and the second leg portion comprising a front panel and a rear panel ; at least a first stretch panel located on the rear panel of the first leg portion ; and at least a second stretch panel located on the rear panel of the second leg portion; wherein the rear panels of the first leg portion and second leg portion are each divided into an upper region and a lower region by a substantially diagonal seam , the substantially diagonal seam extending from a point at a rear seam of the pant downward to a point at an outer seam of the leg portion; wherein the point at the rear seam of the pant is located between 152.4 mm (6 inches) and 254 mm (10 inches) below the bottom edge of the waistband and the point at the outer seam of the leg portion is located between 304.8 mm (12 inches) and 609.6 mm (24 inches) below a bottom edge of a waistband ; a lower edge of each of the stretch panels coincides with each of the substantially diagonal seams and extends along the entire length of the diagonal seam ; each of the stretch panels has an outer edge that coincides with the outer seam of the leg; and the front panels of the first and second leg portions do not contain any stretch panels; wherein each of the stretch panels provides a wearer with enhanced mobility when performing one or more of the following motions: (a) bending over, (b) squatting, (c) kneeling and twisting, (d) reaching forward and up, and (e) big step.