mhurhangee/patent-ind-claim-en huggingface dataset:
Method for introducing a seam into a decor layer for a vehicle trim part, the decor layer having a visible A-surface and a B-surface opposite the visible A-surface, the method comprising the following steps: - projecting a means for guiding onto the decor layer ; - introducing the decor layer into a sewing machine ; - introducing at least one seam into the decor layer; - removing the means for guiding from the decor layer, wherein the means for guiding includes a light beam projected onto the B-surface of the decor layer, wherein a system including a laser and a controller is provided, which system reads data of the decor layer from a file or from a recorded image, the data including a contour of a seam line to be introduced into the decor layer, and wherein the laser projects an image of the contour onto the B-surface , the image defining the contour of the seam line to be introduced. - projecting a means for guiding onto the decor layer ; - introducing the decor layer into a sewing machine ; - introducing at least one seam into the decor layer; - removing the means for guiding from the decor layer,
A method for orienting a plurality of reflectors (30a-30h) of a communications system in a zone , the communications system comprising an antenna and the plurality of reflectors (30a-30h), the antenna being operable in one or more frequencies in a frequency range from 0,1 THz to 10,0 THz, each reflector of the plurality of reflectors (30a-30h) being spaced apart from each other and the antenna , the method comprising: digitally predicting a future motor vehicle density distribution in the zone based on a plurality of obtained past motor vehicle density distributions in the zone ; digitally computing an orientation of each reflector of the plurality of reflectors (30a-30h) such that variation in estimated power reception of electromagnetic waves radiated by the antenna between all pairs of predicted motor vehicles according to the future motor vehicle density distribution is minimized; and orienting each reflector of the plurality of reflectors (30a-30h) according to the digitally computed orientation . digitally predicting a future motor vehicle density distribution in the zone based on a plurality of obtained past motor vehicle density distributions in the zone ; digitally computing an orientation of each reflector of the plurality of reflectors (30a-30h) such that variation in estimated power reception of electromagnetic waves radiated by the antenna between all pairs of predicted motor vehicles according to the future motor vehicle density distribution is minimized; and orienting each reflector of the plurality of reflectors (30a-30h) according to the digitally computed orientation .
CD8 + CD39 + CD103 + autologous T cells derived from a tumor for use in treating an autologous tumor in a subject, wherein the CD8 + CD39 + CD103 + autologous T cells are administered to the subject before, after, or concurrent with a therapeutically effective amount of a Programmed Death (PD)-1 antagonist, a Programmed Death Ligand (PD-L1) antagonist, a Cytotoxic T-lymphocyte-Associated Protein 4 (CTLA-4) antagonist, a B- and T-lymphocyte Attenuator (BTLA) antagonist, T-cell Immunoglobulin and Mucin-domain containing-3 (TIM-3) antagonist, a Lymphocyte-Activation Gene 3 (LAG3) antagonist, or a 4-1BB agonist.
A method of a host device managing at least one external device , wherein the at least one external device is connected to a management server through the host device , the method comprising: transmitting device information with respect to the at least one external device to the management server while requesting that the management server register the at least one external device ; obtaining measurement information measured by the at least one external device ; the host device requesting authentication of the host device by the management server ; upon authentication, transmitting the measurement information to the management server ; receiving management information for managing the at least one external device , which is generated based on the measurement information; and managing the at least one external device based on the management information. transmitting device information with respect to the at least one external device to the management server while requesting that the management server register the at least one external device ; obtaining measurement information measured by the at least one external device ; the host device requesting authentication of the host device by the management server ; upon authentication, transmitting the measurement information to the management server ; receiving management information for managing the at least one external device , which is generated based on the measurement information; and managing the at least one external device based on the management information.
A ski mountable and foldable child transportation device comprising - two ski binding fixing elements , configured for being fixed to ski bindings arranged on respective two skis , - a seat back , and - a seat , wherein the two ski binding fixing elements , the seat back and the seat are interconnected, and the seat back and the seat are foldable relative each other, wherein the seat comprises two support elements in front of the two ski binding fixing elements , and the support elements are configured to be arranged between the seat and the respective two skies in front of the binding and before the start of the shovel, and to support the seat . - two ski binding fixing elements , configured for being fixed to ski bindings arranged on respective two skis , - a seat back , and - a seat ,
A connector comprising: a first piece ; a piercing member attached to the first piece ; and a second piece , the piercing member being slidingly receivable within the second piece ; wherein the piercing member and the second piece are movable relative to each other between a first position where the second piece closes a flow port and a second position where the flow port is open; characterized in that the first piece further includes a locking mechanism adapted to lockingly connect the first piece to a device when engaged therewith, thereby permanently locking the first piece to the device and preventing subsequent disconnection of the first piece and the device . a first piece ; a piercing member attached to the first piece ; and a second piece , the piercing member being slidingly receivable within the second piece ; wherein the piercing member and the second piece are movable relative to each other between a first position where the second piece closes a flow port and a second position where the flow port is open; characterized in that the first piece further includes a locking mechanism adapted to lockingly connect the first piece to a device when engaged therewith, thereby permanently locking the first piece to the device and preventing subsequent disconnection of the first piece and the device .
Convergent-divergent thrust nozzle for a turbofan engine of a supersonic aircraft, wherein - the thrust nozzle has an inner wall and forms a flow channel with a nozzle throat area (A81, A82) and a nozzle exit area (A9), - the inner wall delimits the flow channel through the thrust nozzle radially at the outside, - the thrust nozzle has a lining ring which is displaceable in an axial direction between a first position and a second position, wherein the inner wall of the thrust nozzle and the lining ring are designed and positioned relative to one another such that - the lining ring , in the first position, runs radially spaced apart from and at the same time radially to the inside of the inner wall , wherein a ring-shaped bypass channel is provided which runs between the lining ring and the inner wall of the thrust nozzle , wherein the bypass channel provides an additional cross-sectional area of the flow channel , and - wherein, in the first position, the nozzle throat area is formed by the sum of the smallest cross-sectional area (A81) of the lining ring and of the smallest cross-sectional area (A82) of the bypass channel , and - in the second position, the nozzle throat area is formed by the narrowest cross-sectional area (A81) of the lining ring , characterized in that the lining ring , in the second position, bears against the inner wall , wherein the bypass channel , in the second position, is closed. - the thrust nozzle has an inner wall and forms a flow channel with a nozzle throat area (A81, A82) and a nozzle exit area (A9), - the inner wall delimits the flow channel through the thrust nozzle radially at the outside, - the thrust nozzle has a lining ring which is displaceable in an axial direction between a first position and a second position, wherein the inner wall of the thrust nozzle and the lining ring are designed and positioned relative to one another such that - the lining ring , in the first position, runs radially spaced apart from and at the same time radially to the inside of the inner wall , wherein a ring-shaped bypass channel is provided which runs between the lining ring and the inner wall of the thrust nozzle , wherein the bypass channel provides an additional cross-sectional area of the flow channel , and - wherein, in the first position, the nozzle throat area is formed by the sum of the smallest cross-sectional area (A81) of the lining ring and of the smallest cross-sectional area (A82) of the bypass channel , and - in the second position, the nozzle throat area is formed by the narrowest cross-sectional area (A81) of the lining ring ,
A system , comprising: an elongated shaft including a distal portion , wherein the shaft is configured to locate the distal portion within a body lumen of a human; a treatment assembly connected to the shaft at the distal portion of the shaft , the treatment assembly including- a neuromodulation element configured to deliver a therapeutic energy or compound to a nerve located at least proximate to a wall of the body lumen; wherein the system further comprises: an emitter configured to emit diagnostic energy toward the tissue; and a detector configured to detect a return energy associated with the diagnostic energy; an indicator ; a controller operably connected to the detector and the indicator , the controller including memory and processing circuitry, the memory storing instructions that, when executed by the controller using the processing circuitry, cause- the controller to compare a detection time of the return energy to a predetermined detection time range; and the indicator to provide information whether the treatment assembly is within a desired distance of the wall based on the comparison of the measured detection time and the predetermined detection time range. an elongated shaft including a distal portion , wherein the shaft is configured to locate the distal portion within a body lumen of a human; a treatment assembly connected to the shaft at the distal portion of the shaft , the treatment assembly including- a neuromodulation element configured to deliver a therapeutic energy or compound to a nerve located at least proximate to a wall of the body lumen; wherein the system further comprises: an emitter configured to emit diagnostic energy toward the tissue; and a detector configured to detect a return energy associated with the diagnostic energy; an indicator ; a controller operably connected to the detector and the indicator , the controller including memory and processing circuitry, the memory storing instructions that, when executed by the controller using the processing circuitry, cause- the controller to compare a detection time of the return energy to a predetermined detection time range; and the indicator to provide information whether the treatment assembly is within a desired distance of the wall based on the comparison of the measured detection time and the predetermined detection time range. an emitter configured to emit diagnostic energy toward the tissue; and a detector configured to detect a return energy associated with the diagnostic energy; an indicator ; a controller operably connected to the detector and the indicator , the controller including memory and processing circuitry, the memory storing instructions that, when executed by the controller using the processing circuitry, cause- the controller to compare a detection time of the return energy to a predetermined detection time range; and the indicator to provide information whether the treatment assembly is within a desired distance of the wall based on the comparison of the measured detection time and the predetermined detection time range.
A stimulation device (200, 200', 200"), comprising: a flexible board configured for personal use; an array of one or more vibrational stimulating components disposed throughout at least a portion of the flexible board; a stimulation controller in communication with at least one of the one or more vibrational stimulating components, the stimulation controller configured to process a stimulation signal that activates or deactivates at least one of the one or more vibrational stimulating components; at least one sensor integrated into the flexible board for collecting body feedback data; and a wireless radio in communication with the stimulation controller and configured to receive the stimulation signal wirelessly from at least one remote device, wherein the controller is further configured to modify the stimulation signal based on the body feedback data. a flexible board configured for personal use; an array of one or more vibrational stimulating components disposed throughout at least a portion of the flexible board; a stimulation controller in communication with at least one of the one or more vibrational stimulating components, the stimulation controller configured to process a stimulation signal that activates or deactivates at least one of the one or more vibrational stimulating components; at least one sensor integrated into the flexible board for collecting body feedback data; and a wireless radio in communication with the stimulation controller and configured to receive the stimulation signal wirelessly from at least one remote device,
Method for detecting a whistle blast of a referee of a sport event, comprising: - the installation of first and second microphones on the referee such that, when the referee uses a whistle , the second microphone is located farther from the whistle than the first microphone ; and - the analysis of first and second signals (S1, S2) respectively provided by first and second microphones , to determine if a perceived sound is ambient, or can come from the whistle . - the installation of first and second microphones on the referee such that, when the referee uses a whistle , the second microphone is located farther from the whistle than the first microphone ; and - the analysis of first and second signals (S1, S2) respectively provided by first and second microphones , to determine if a perceived sound is ambient, or can come from the whistle .
A system for automated adjustment of a pressure set by a ventilation device , comprising a pressure detection arrangement for detecting a transpulmonary pressure at the end of an expiration phase (Ptp_ee) and/or a transpulmonary pres - sure at the end of an inspiration phase (Ptp ei), characterised by a means for automated adjustment of the pressure set by the ventilation de - vice on the basis of the transpulmonary pressure detected at the end of the expiration phase (Ptp_ee) and/or the transpulmonary pressure detected at the end of the inspiration phase (Ptp_ei), wherein the system is configured to automatically adjust a positive end-expi - ratory pressure (PEEP) set by the ventilation device on the basis of the transpulmonary pressure detected at the end of the expiration phase (PTP_ee); and/ or configured to automatically adjust a maximum airway pressure (Paw_max) set by the ventilation device on the basis of the transpulmonary pressure detected at the end of the inspiration phase (Ptp_ei), the transpulmonary pressure at the end of the expiration phase (Ptp_ee) and the positive end-expiratory pressure (PEEP); wherein the system is designed to determine the positive end-expiratory pressure in a subsequent breathing cycle (PEEP_n+1) in accordance with a deviation of the transpulmonary pressure at the end of an expiration phase (Ptp_ee_n) detected in m preceding breathing cycles from a normalized transpulmonary pressure at the end of an expiration phase (Ptp_ee_ideal), and/or to determine the maximum airway pressure in a subsequent breath - ing cycle (Paw_max_n+1) on the basis of a difference between an airway pressure at the end of an inspiration phase (Paw_ei_n) detected in m pre - ceding breathing cycles and a positive end-expiratory pressure (PEEP_n) applied in m preceding breathing cycles, with m ≥ 1.
A robotic surgical system comprising: at least one robot arm ; a camera; and a console including: a first handle ; a second handle ; and a selector switch configured to select between a robotic control mode and a camera control mode, wherein the first handle or the second handle control the at least one robot arm in the robotic control mode and the first handle and the second handle control the camera in the camera control mode, wherein the console includes a controller configured to control operation of the robotic surgical system when the camera control mode is selected, the controller is configured to record a first set point based on a current position for the first handle and a second set point based on a current position for the second handle; characterised in that the controller is configured to create a first dead zone around the first set point and a second dead zone around the second set point and wherein a camera function is performed by the camera only when both the first handle is moved past the first dead zone and the second handle is moved past the second dead zone and wherein the camera function is a movement of the camera and a velocity of the camera movement is based on a distance between: (i) a first handle position and the first set point and (ii) a second handle position and the second set point. at least one robot arm ; a camera; and a console including: a first handle ; a second handle ; and a selector switch configured to select between a robotic control mode and a camera control mode, a first handle ; a second handle ; and a selector switch configured to select between a robotic control mode and a camera control mode, wherein the first handle or the second handle control the at least one robot arm in the robotic control mode and the first handle and the second handle control the camera in the camera control mode, wherein the console includes a controller configured to control operation of the robotic surgical system when the camera control mode is selected, the controller is configured to record a first set point based on a current position for the first handle and a second set point based on a current position for the second handle; characterised in that the controller is configured to create a first dead zone around the first set point and a second dead zone around the second set point and wherein a camera function is performed by the camera only when both the first handle is moved past the first dead zone and the second handle is moved past the second dead zone and wherein the camera function is a movement of the camera and a velocity of the camera movement is based on a distance between: (i) a first handle position and the first set point and (ii) a second handle position and the second set point.
Step device which can be connected or is connected to a vehicle, comprising at least two steps , comprising a housing which has a connection interface, via which the housing can be connected or is connected to a part of a substructure of the vehicle, comprising a drive which is configured and arranged in relation to the steps in order to - move at least one of the steps from a stowed position, in which the steps are arranged completely below the vehicle in or on the housing , to a boarding position laterally next to or behind the vehicle, - move a first step , during the movement from the stowed position to the boarding position, upwards in a direction in or transverse to a direction of travel of the vehicle and in the direction of a passenger compartment of the vehicle, and - move at least one second step downwards in or transverse to the direction of travel of the vehicle and in the direction of a road surface; wherein the movement of the at least one second step is a purely linear movement, wherein the movement of the first step in the direction of the passenger compartment begins only when the at least one second step is in an intermediate position, wherein the housing comprises a first opening as a guide groove or first motion link which controls a movement of the first step and a movement of the at least one second step from the stowed position to an intermediate position and controls a movement of the second step from the intermediate position to the boarding position, and wherein the at least one second step comprises an engagement element which engages into the first opening in the housing and is located in the intermediate position approximately in the centre of the first opening . - move at least one of the steps from a stowed position, in which the steps are arranged completely below the vehicle in or on the housing , to a boarding position laterally next to or behind the vehicle, - move a first step , during the movement from the stowed position to the boarding position, upwards in a direction in or transverse to a direction of travel of the vehicle and in the direction of a passenger compartment of the vehicle, and - move at least one second step downwards in or transverse to the direction of travel of the vehicle and in the direction of a road surface;
Plastic object with a melt splice identification system, whereby a melt splice identification comprises a transparent piece of plastic film with an internal surface and an external surface , whereby the internal surface and the external surface of the piece of plastic film are adhesive-free, whereby the internal surface comprises an identification means , and whereby the internal surface of the piece of plastic film comprises a melt splice to the plastic object , characterised in that the identification means comprises an imprint that is arranged mirror-symmetrically on the internal surface of the piece of plastic film and comprises a melt splice to an external surface section of the plastic object such that the imprint appears visibly and legibly on the external surface of the transparent piece of plastic film .