mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomous medical waste collection assembly , said assembly comprising: a base adapted to be positioned near a patient ; wheels coupled to said base with at least one of said wheels being powered to move said base along a floor surface; a waste collection unit coupled to said base for receiving medical waste from the patient including: a canister for holding the medical waste; and a suction pump in fluid communication with said canister and configured to draw a suction on said canister ; a controller operable to initiate a waste disposal protocol, said waste disposal protocol comprising transmitting a movement signal to said powered wheel for automatically moving said autonomous medical waste collection assembly away from the patient to a disposal station ; and a user input device in communication with said controller , said user input device being adapted to provide a user input signal in response to being actuated by a user; wherein said controller is configured to initiate said waste disposal protocol in response to receiving said user input signal. a base adapted to be positioned near a patient ; wheels coupled to said base with at least one of said wheels being powered to move said base along a floor surface; a waste collection unit coupled to said base for receiving medical waste from the patient including: a canister for holding the medical waste; and a suction pump in fluid communication with said canister and configured to draw a suction on said canister ; a canister for holding the medical waste; and a suction pump in fluid communication with said canister and configured to draw a suction on said canister ; a controller operable to initiate a waste disposal protocol, said waste disposal protocol comprising transmitting a movement signal to said powered wheel for automatically moving said autonomous medical waste collection assembly away from the patient to a disposal station ; and a user input device in communication with said controller , said user input device being adapted to provide a user input signal in response to being actuated by a user; wherein said controller is configured to initiate said waste disposal protocol in response to receiving said user input signal.
A shovel comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; an actuator mounted on the lower traveling body or the upper turning body ; and a controller configured to restrict movement of the actuator, characterized in that the controller is configured to set a virtual wall (VW) whose inside and outside are determined based on a position of the shovel and positions of a plurality of objects placed in a vicinity of the shovel , and to restrict the movement of the actuator based on a positional relationship between the virtual wall (VW) and the shovel . a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; an actuator mounted on the lower traveling body or the upper turning body ; and a controller configured to restrict movement of the actuator, characterized in that the controller is configured to set a virtual wall (VW) whose inside and outside are determined based on a position of the shovel and positions of a plurality of objects placed in a vicinity of the shovel , and to restrict the movement of the actuator based on a positional relationship between the virtual wall (VW) and the shovel .
Composition comprising A) at least one non-silicone-containing quaternary ammonium compound selected from the group of the ester quats, B) at least one cosmetic oil comprising no silicone oils, C) at least one nonionic surfactant, D) at least one nonaqueous solvent, E) water, characterized in that it is a microemulsion. A) at least one non-silicone-containing quaternary ammonium compound selected from the group of the ester quats, B) at least one cosmetic oil comprising no silicone oils, C) at least one nonionic surfactant, D) at least one nonaqueous solvent, E) water,
An air-conditioner comprising: a unit main body which is suspended in a roof space of a building via a plurality of hanging tools , and accommodates an indoor heat exchanger and a blower for transferring air to the heat exchanger ; and a plurality of hangers which are provided in a top board of the unit main body , and are connected to lower end portions of the hanging tools , characterized in that the top board includes an upper board portion which extends horizontally, and a sideboard portion connected to the peripheral border of the upper board which is bent downward from the peripheral border of the upper board portion at a substantially right angle, and each of the hangers includes a connection portion which juts from the corner portion of the top board outward and horizontally in the width direction from the unit main body and is connected to the corresponding hanging tool , a first securing portion which is bent at substantially a right angle from an end portion opposite to the apical end portion of the connection portion so as to overlap with an inner surface of the sideboard portion and is secured to the sideboard portion via a fastener , and a second securing portion which extends integrally from an apical end of the first securing portion along the lower surface of the upper board portion of the top board and overlaps with the upper board portion from an upper side. a unit main body which is suspended in a roof space of a building via a plurality of hanging tools , and accommodates an indoor heat exchanger and a blower for transferring air to the heat exchanger ; and a plurality of hangers which are provided in a top board of the unit main body , and are connected to lower end portions of the hanging tools , characterized in that the top board includes an upper board portion which extends horizontally, and a sideboard portion connected to the peripheral border of the upper board which is bent downward from the peripheral border of the upper board portion at a substantially right angle, and each of the hangers includes a connection portion which juts from the corner portion of the top board outward and horizontally in the width direction from the unit main body and is connected to the corresponding hanging tool , a first securing portion which is bent at substantially a right angle from an end portion opposite to the apical end portion of the connection portion so as to overlap with an inner surface of the sideboard portion and is secured to the sideboard portion via a fastener , and a second securing portion which extends integrally from an apical end of the first securing portion along the lower surface of the upper board portion of the top board and overlaps with the upper board portion from an upper side.
A method to be carried out by an onboard system of an aircraft , the onboard system including a display system and a user input device , wherein the method comprises: in a control module, receiving, via the user input device, a selection of a designated approach procedure in a flight plan; retrieving, from a navigation database (NDB), the designated approach procedure; identifying a designated glide slope angle (D_GSA) based on the designated approach procedure; receiving data from an on-board sensor system providing actual weather data; processing the data from the on-board sensor system to generate an adaptive glide slope angle (A_GSA) based thereon; determining whether the A_GSA is compatible with the designated approach procedure; displaying the D_GSA and A_GSA on the display system (112,), making the A_GSA a selectable option for the pilot to utilize the user input device to modify the designated approach procedure with the A_GSA, when the designated approach procedure is compatible with the A_GSA (operation 618); and barring modification of the designated approach procedure with the A_GSA (operation 612), and generating a first alert (operation 614), when the A_GSA is not compatible with the designated approach procedure, and allowing modification of the designated approach procedure with the A_GSA when the A_GSA is compatible with the designated approach procedure (operation 616). in a control module, receiving, via the user input device, a selection of a designated approach procedure in a flight plan; retrieving, from a navigation database (NDB), the designated approach procedure; identifying a designated glide slope angle (D_GSA) based on the designated approach procedure; receiving data from an on-board sensor system providing actual weather data; processing the data from the on-board sensor system to generate an adaptive glide slope angle (A_GSA) based thereon; determining whether the A_GSA is compatible with the designated approach procedure; displaying the D_GSA and A_GSA on the display system (112,), making the A_GSA a selectable option for the pilot to utilize the user input device to modify the designated approach procedure with the A_GSA, when the designated approach procedure is compatible with the A_GSA (operation 618); and barring modification of the designated approach procedure with the A_GSA (operation 612), and generating a first alert (operation 614), when the A_GSA is not compatible with the designated approach procedure, and allowing modification of the designated approach procedure with the A_GSA when the A_GSA is compatible with the designated approach procedure (operation 616).
A method of transmitting data from a group of devices to a base station of a mobile telecommunications network, the method including: assigning (S1) a unique antenna identifier to each transmit antenna of a plurality of devices forming a beamforming group of devices, wherein the beamforming group is assigned a single group identifier for use by the group; informing (S2) the base station of the unique antenna identifiers of the beamforming group; each device of the beamforming group transmitting (S3) sounding reference signals to the base station with each transmit antenna, wherein each antenna is identified by its unique antenna identifier, wherein each antenna identifier is unique within the beamforming group and indicated to be associated to said beamforming group with said single group identifier; each device receiving (S4) from the base station respective beamforming precoding information, for each antenna identified with each unique antenna identifier, generated in response to each respective sounding reference signal and wherein the precoding information comprises precoding data for the transmit antennas to generate beamforming when performing a group transmission associated with said group identifier; each device utilizing (S5) said precoding information to transmit data to said base station in a beamforming transmission as part of a joint beamforming transmission from said beamforming group of devices. assigning (S1) a unique antenna identifier to each transmit antenna of a plurality of devices forming a beamforming group of devices, wherein the beamforming group is assigned a single group identifier for use by the group; informing (S2) the base station of the unique antenna identifiers of the beamforming group; each device of the beamforming group transmitting (S3) sounding reference signals to the base station with each transmit antenna, wherein each antenna is identified by its unique antenna identifier, wherein each antenna identifier is unique within the beamforming group and indicated to be associated to said beamforming group with said single group identifier; each device receiving (S4) from the base station respective beamforming precoding information, for each antenna identified with each unique antenna identifier, generated in response to each respective sounding reference signal and wherein the precoding information comprises precoding data for the transmit antennas to generate beamforming when performing a group transmission associated with said group identifier; each device utilizing (S5) said precoding information to transmit data to said base station in a beamforming transmission as part of a joint beamforming transmission from said beamforming group of devices.
A method of manufacturing a front pane for a PV-module , comprising at least the steps of: (i) providing a transparent pane of a transparent material, the pane having at least a front side , wherein the front side comprises recesses with protrusions in between, wherein each recess has a bottom (ii) at least partially filling the recesses with a layer of a colorant , wherein an upper region of the protrusions remains uncoated and extends above the colorant , characterized in that the colorant has a lower refraction index than that of the transparent material (i) providing a transparent pane of a transparent material, the pane having at least a front side , wherein the front side comprises recesses with protrusions in between, wherein each recess has a bottom (ii) at least partially filling the recesses with a layer of a colorant , wherein an upper region of the protrusions remains uncoated and extends above the colorant ,
Personal care device, in particular hair removal device such as electric shaver, comprising a working head attached to a handle for moving the working head along a skin surface, said working head including at least one working tool defining a skin contact contour of the working head, wherein said at least one working tool is moveable relative to said handle under a skin contact pressure by means of a support structure to allow for pivoting of the working head's skin contact contour relative to the handle, wherein a biasing device is provided for biasing and/or for increasing pivotal movement resistance of said working tool and / or of said working head, characterized in that an adjustment device including an adjustment actuator (AA) controlled by an electronic control unit is provided to adjust a pivoting stiffness of at least part of the working head in response to at least one characteristic treatment parameter detected by at least one detector during handling the personal care device when effecting the personal care treatment.
An actuator comprising: a rod having a socket portion and a planar face at one distal end of the rod ; and a swivel cap including: a base portion having an inner surface and an outer surface ; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod ; and a raised region located on at least one of the raised domed portion or the socket portion ; wherein the swivel cap tilts relative to the rod in response to angular misalignment with a load to a tilt angle, wherein it comprises a gap between the planar face of the distal end of the rod and the base portion of the swivel cap around the raised domed portion and characterized in that the gap is positioned between the planar face and the inner surface of the base portion so that tilting the swivel cap relative to the rod at a maximum tilt angle causes the inner surface to contact the planar face and close the gap , wherein tilting the swivel cap relative to the rod beyond the maximum tilt angle causes a dent on the inner surface . a rod having a socket portion and a planar face at one distal end of the rod ; and a swivel cap including: a base portion having an inner surface and an outer surface ; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod ; and a raised region located on at least one of the raised domed portion or the socket portion ; a base portion having an inner surface and an outer surface ; a raised domed portion disposed on the inner surface of the base portion and mounted in the socket portion of the rod ; and a raised region located on at least one of the raised domed portion or the socket portion ; wherein the swivel cap tilts relative to the rod in response to angular misalignment with a load to a tilt angle, wherein it comprises a gap between the planar face of the distal end of the rod and the base portion of the swivel cap around the raised domed portion and characterized in that the gap is positioned between the planar face and the inner surface of the base portion so that tilting the swivel cap relative to the rod at a maximum tilt angle causes the inner surface to contact the planar face and close the gap , wherein tilting the swivel cap relative to the rod beyond the maximum tilt angle causes a dent on the inner surface .
A system for drilling a well and obtaining a downhole core sample, comprising: a rig having a mast ; the mast supporting an injector thereon having an injector axis offset with respect to a central axis of the mast when the rig is moving threaded tubulars, and in line with the central axis of the mast when the rig is moving coil tubing , and the mast supporting a drive unit for rotating the threaded tubulars; a drilling assembly comprising coil tubing , the injector on the mast moving the coil tubing , and a drilling bottomhole assembly including a percussion tool , a shock absorber , and a rotary motor for rotating the percussion tool , each of the percussion tool , shock absorber , and rotary motor being suspended in the well from the coil tubing , the coil tubing passing through the drive unit when drilling the well; and a coring assembly comprising a threaded string of threaded tubulars, the drive unit supported on the mast rotating the threaded string, and a coring bottomhole assembly including a coring tool ; wherein the drive unit moves along the mast while raising and lowering the threaded string of tubulars, and the drive unit is positioned below the injector when the injector is aligned with the mast ; and wherein the injector is pivotally supported on the mast . a rig having a mast ; the mast supporting an injector thereon having an injector axis offset with respect to a central axis of the mast when the rig is moving threaded tubulars, and in line with the central axis of the mast when the rig is moving coil tubing , and the mast supporting a drive unit for rotating the threaded tubulars; a drilling assembly comprising coil tubing , the injector on the mast moving the coil tubing , and a drilling bottomhole assembly including a percussion tool , a shock absorber , and a rotary motor for rotating the percussion tool , each of the percussion tool , shock absorber , and rotary motor being suspended in the well from the coil tubing , the coil tubing passing through the drive unit when drilling the well; and a coring assembly comprising a threaded string of threaded tubulars, the drive unit supported on the mast rotating the threaded string, and a coring bottomhole assembly including a coring tool ; wherein the drive unit moves along the mast while raising and lowering the threaded string of tubulars, and the drive unit is positioned below the injector when the injector is aligned with the mast ; and wherein the injector is pivotally supported on the mast .
A monoclonal anti-tau antibody or tau-binding fragment thereof, wherein: (a) the heavy chain variable region (VH) comprises the amino acid sequence set forth in SEQ ID NO:48 and the light chain variable region (VL) comprises the amino acid sequence set forth in SEQ ID NO:49, or (b) the VH comprises the amino acid sequence set forth in SEQ ID NO:47 and the VL comprises the amino acid sequence set forth in SEQ ID NO:49. (a) the heavy chain variable region (VH) comprises the amino acid sequence set forth in SEQ ID NO:48 and the light chain variable region (VL) comprises the amino acid sequence set forth in SEQ ID NO:49, or (b) the VH comprises the amino acid sequence set forth in SEQ ID NO:47 and the VL comprises the amino acid sequence set forth in SEQ ID NO:49.
A method for receiving a Reference Signal, RS, performed by a User Equipment, UE , in a wireless communication system, comprising: receiving, from a base station , configuration information including a maximum number value related to a maximum number of symbols to which a Dedicated Demodulation Reference Signal, DMRS, is mapped and a configuration type of the DMRS related to (i) a time and frequency mapping pattern of the DMRS to physical resources and (ii) antenna ports configuration used to transmit the DMRS, through a higher layer signaling; receiving, from the base station , a Physical Downlink Control Channel, PDCCH, including Downlink Control Information, DCI, related to a configuration of the DMRS; and receiving, from the base station , the DMRS and a Physical Downlink Shared Channel, PDSCH, based on the PDCCH, wherein the DCI includes a DCI field for receiving the DMRS, wherein configurations related to receiving the DMRS are configured differently based on (i) the maximum number value and (ii) the configuration type, and wherein the DCI field is configured based on the configurations differently configured based on (i) the maximum number value and (ii) the configuration type. receiving, from a base station , configuration information including a maximum number value related to a maximum number of symbols to which a Dedicated Demodulation Reference Signal, DMRS, is mapped and a configuration type of the DMRS related to (i) a time and frequency mapping pattern of the DMRS to physical resources and (ii) antenna ports configuration used to transmit the DMRS, through a higher layer signaling; receiving, from the base station , a Physical Downlink Control Channel, PDCCH, including Downlink Control Information, DCI, related to a configuration of the DMRS; and receiving, from the base station , the DMRS and a Physical Downlink Shared Channel, PDSCH, based on the PDCCH, wherein the DCI includes a DCI field for receiving the DMRS, wherein configurations related to receiving the DMRS are configured differently based on (i) the maximum number value and (ii) the configuration type, and wherein the DCI field is configured based on the configurations differently configured based on (i) the maximum number value and (ii) the configuration type.
Arrangement for signal analysis having at least one central data processing unit and a screen unit connected with the at least one central data processing unit , wherein the central data processing unit calculates a spectrum and a spectrogram from a digitized signal (7 1 , 7 2 ; 7), wherein the at least one central data processing unit is configured so that it controls the screen unit in such a way that in a first diagram the spectrogram of the digitized signal (7 1 , 7 2 ; 7), in a second diagram the characteristic of the spectrum of the digitized signal (7 1 , 7 2 ; 7) and in a third diagram the characteristic of the digitized signal (7 1 , 7 2 ; 7) present in the time domain can be displayed together and at the same time on the screen unit , wherein the digitized signal (7 1 , 7 2 ; 7) can be stored in a memory unit by the at least one central data processing unit , characterized in that the at least one central data processing unit is configured so that the digitized signal (7 1 , 7 2 ; 7) present in the time domain can be filtered through a band pass filter , wherein the band pass range of the band pass filter corresponds to a selected frequency range of the first diagram for the spectrogram or a selected frequency range of the second diagram for the characteristic of the spectrum , and wherein the spectrogram is stored in a matrix .
Planning device for producing control data for an ophthalmic surgery treatment apparatus which produces at least one cut surface in the cornea by means of a laser device , the planning device comprising calculation means for defining the corneal cut surfaces , the calculation means defining the corneal cut surfaces on the basis of the data of a LIRIC structure and preferably a refractive correction, and producing, for the corneal cut surfaces , a control data record for controlling the laser device , characterized in that the calculation means determine the corneal cut surfaces in such a way that the LIRIC structure is enclosed by the cut surfaces .