mhurhangee/ep-ind-claims huggingface dataset:
A wound closure device comprising: a filamentary element extending along a longitudinal axis between a proximal end, suitable for insertion into tissue, and a distal end, and including a plurality of barbs that extend outwardly therefrom; a stop element, in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a length extending substantially parallel to the longitudinal axis of the filamentary element, a width extending substantially perpendicular to said longitudinal axis, and a maximum thickness; wherein the ratio of the length to the maximum thickness of the stop element is at least 4, wherein the maximum thickness of the stop element is between 0.203 and 0.635 mm (8 and 25 mils), wherein the length of the stop element is greater than 0.991 mm (39 mils), wherein the width of the stop element is between 1.78 and 3.05 mm (70 and 120 mils). a filamentary element extending along a longitudinal axis between a proximal end, suitable for insertion into tissue, and a distal end, and including a plurality of barbs that extend outwardly therefrom; a stop element, in the form of a tab, coupled to the distal end of the filamentary element, the stop element having a length extending substantially parallel to the longitudinal axis of the filamentary element, a width extending substantially perpendicular to said longitudinal axis, and a maximum thickness; wherein the ratio of the length to the maximum thickness of the stop element is at least 4, wherein the maximum thickness of the stop element is between 0.203 and 0.635 mm (8 and 25 mils), wherein the length of the stop element is greater than 0.991 mm (39 mils), wherein the width of the stop element is between 1.78 and 3.05 mm (70 and 120 mils).
A computer system, comprising: a peripheral device; a processing unit adapted to execute a driver for interfacing with the peripheral device in a standard mode of operation and to execute the driver and an authentication agent in a privileged mode of operation not visible to other processes, wherein the authentication agent includes program instructions adapted to authenticate the driver while in the privileged mode of operation to verify that the driver has not been corrupted or co-opted. a peripheral device; a processing unit adapted to execute a driver for interfacing with the peripheral device in a standard mode of operation and to execute the driver and an authentication agent in a privileged mode of operation not visible to other processes, wherein the authentication agent includes program instructions adapted to authenticate the driver while in the privileged mode of operation to verify that the driver has not been corrupted or co-opted.
A vehicle testing method for detecting vehicle tampering to circumvent vehicle emissions testing, said method comprising: operatively connecting a vehicle testing system with a vehicle computer that is integrated with the vehicle to receive data signals from equipment, systems and/or sensors of the vehicle associated with vehicle emissions whereby said vehicle testing system is able to evaluate signals within the vehicle computer, said vehicle testing system including a tamper testing sequence (18, 118), wherein said vehicle testing method comprises performing said tamper testing sequence (18, 118) comprising: applying a test action (27, 127) to the vehicle, said test action (27, 127) intended to generate a signal in the vehicle computer responsive to said test action, wherein the applying a test action comprises resetting a vehicle on-board diagnostic monitor of the vehicle computer and/or altering an operational parameter of the vehicle that is intended to cause a change in the level of oxygen in the exhaust stream of the vehicle responsive to said test action and generate a signal from a vehicle sensor associated with vehicle emissions; monitoring the signal of the vehicle computer associated with said test action; and determining (30, 130) whether the signal of the vehicle computer associated with said test action (27, 127) responds to said test action (27, 127) consistent with a non-tampered vehicle; wherein a determination that the signal of the vehicle computer associated with said test action (27, 127) responds inconsistently indicates that tampering to circumvent vehicle emissions testing has occurred. applying a test action (27, 127) to the vehicle, said test action (27, 127) intended to generate a signal in the vehicle computer responsive to said test action, wherein the applying a test action comprises resetting a vehicle on-board diagnostic monitor of the vehicle computer and/or altering an operational parameter of the vehicle that is intended to cause a change in the level of oxygen in the exhaust stream of the vehicle responsive to said test action and generate a signal from a vehicle sensor associated with vehicle emissions; monitoring the signal of the vehicle computer associated with said test action; and determining (30, 130) whether the signal of the vehicle computer associated with said test action (27, 127) responds to said test action (27, 127) consistent with a non-tampered vehicle; wherein a determination that the signal of the vehicle computer associated with said test action (27, 127) responds inconsistently indicates that tampering to circumvent vehicle emissions testing has occurred.
A radio frequency, RF, system, comprising: an RF transceiver; an RF processing circuit coupled with the RF transceiver; a transfer switch module coupled with the RF processing circuit; a first antenna, a second antenna, a third antenna, and a fourth antenna, wherein the transfer switch module is coupled with the first antenna, the second antenna, the third antenna, and the fourth antenna, and efficiency of the first antenna and the second antenna is higher than efficiency of the third antenna and the fourth antenna; when the RF system operates in a non-standalone, NSA, mode, the first antenna is used for transmission in a first low band, LB, a first middle band, MB, and a first high band, HB, and primary reception in the first LB, the first MB, and the first HB, the second antenna is used for transmission in a second LB, a second MB, and a second HB and primary reception in the second LB, the second MB, and the second HB, the third antenna is used for diversity reception in the second LB, the second MB, and the second HB, and the fourth antenna is used for diversity reception in the first LB, the first MB, and the first HB; and wherein the first LB, the first MB, and the first HB are long term evolution, LTE, bands, the second LB, the second MB, and the second HB are new radio, NR, bands, the first antenna, the second antenna, the third antenna, and the fourth antenna are configured to support LB+LB evolved-universal terrestrial radio access NR dual connectivity, EN-DC, and middle high band, MHB, +MHB EN-DC of LTE bands and NR bands simultaneously. an RF transceiver; an RF processing circuit coupled with the RF transceiver; a transfer switch module coupled with the RF processing circuit; a first antenna, a second antenna, a third antenna, and a fourth antenna, wherein the transfer switch module is coupled with the first antenna, the second antenna, the third antenna, and the fourth antenna, and efficiency of the first antenna and the second antenna is higher than efficiency of the third antenna and the fourth antenna; when the RF system operates in a non-standalone, NSA, mode, the first antenna is used for transmission in a first low band, LB, a first middle band, MB, and a first high band, HB, and primary reception in the first LB, the first MB, and the first HB, the second antenna is used for transmission in a second LB, a second MB, and a second HB and primary reception in the second LB, the second MB, and the second HB, the third antenna is used for diversity reception in the second LB, the second MB, and the second HB, and the fourth antenna is used for diversity reception in the first LB, the first MB, and the first HB; and wherein the first LB, the first MB, and the first HB are long term evolution, LTE, bands, the second LB, the second MB, and the second HB are new radio, NR, bands, the first antenna, the second antenna, the third antenna, and the fourth antenna are configured to support LB+LB evolved-universal terrestrial radio access NR dual connectivity, EN-DC, and middle high band, MHB, +MHB EN-DC of LTE bands and NR bands simultaneously.
Gripper for a working implement for handling bales, having a pick-up for picking up the bales, wherein the gripper has a selectively movable cutting device, and the gripper has at least one supporting arm, and the supporting arm has at least one tine and/or a transverse support having at least one tine, characterized in that the cutting device is provided so as to be pivotable with respect to the supporting arm, and the cutting device is provided so as to be movable along the tines.
Use of a compound of the formula to increase the amount of melanin in melanocytes, where: R1 is in which, X is H, CH 3, (CH 2) n -CH 3 or a substituted alkyl group, Y is H, CH 3, (CH 2) n -CH 3 or a substituted alkyl group and Z is H or OH; and R2 is H, OH, NH 2 or-O-(CH 2) n β where, n =1 to 3 and β is phenyl, naphthyl or alkyl group further optionally substituted with halogen, aryl or NH 2 group; where compound of formula 1 is not a compound in which X is H, Y is CH 3 and Z is OH, wherein said use is for non-therapeutic purpose. R1 is in which, X is H, CH 3, (CH 2) n -CH 3 or a substituted alkyl group, Y is H, CH 3, (CH 2) n -CH 3 or a substituted alkyl group and Z is H or OH; and R2 is H, OH, NH 2 or-O-(CH 2) n β where, n =1 to 3 and β is phenyl, naphthyl or alkyl group further optionally substituted with halogen, aryl or NH 2 group; where compound of formula 1 is not a compound in which X is H, Y is CH 3 and Z is OH, wherein said use is for non-therapeutic purpose.
A method for controlling an Open Internet protocol television Terminal Function OITF device with a remote control device, comprising; discovering, by the remote control device, the OITF device; performing, by the remote control device, a capability matching with the OITF device; receiving a first default control user interface; rendering the first default control user interface; transmitting, when a control action is invoked by a user, a request corresponding to the control action to the OITF device; receiving a second control user interface; rendering the second control user interface; and transmitting, when an input is detected on the second control user interface, a message corresponding to the input to the OITF device; wherein the remote control device receives, if the control action is for selecting a content, the second control user interface from an Internet Protocol Television IPTV application entity through the OITF device for controlling playback of the content.
Warp-knitting machine having a main shaft and a main-shaft drive which has a drive motor, wherein the main shaft actuates at least one bar assembly, wherein the drive motor is disposed so as to be coaxial with the main shaft, characterized in that the drive motor is configured as a revolution-controlled motor, wherein the drive motor has a rotor which is fitted to the main shaft.
A tunable qubit device (100, 200, 606, 608, 610) comprising: a tunable qubit (102, 208, 302, 308), the tunable qubit (102, 208, 302, 308) comprising a superconducting quantum interference device (SQUID) loop (104, 210); a superconducting loop (106, 212, 304, 402, 406, 502, 506) inductively coupled to the SQUID loop (104, 210); and a flux bias line (108, 214, 306, 404, 408 504, 508) inductively coupled to the superconducting loop (106, 212, 304, 402, 406, 502), wherein the superconducting loop (106, 212, 304, 402, 406, 502, 506) is formed from a superconducting material having a critical temperature that is a lower temperature than a critical temperature of any superconducting material of the tunable qubit (102, 208, 302, 308), and wherein, in operation, the superconducting loop (106, 212, 304, 402, 406, 502, 506) provides a persistent bias to the tunable qubit (102, 208, 302, 308). a tunable qubit (102, 208, 302, 308), the tunable qubit (102, 208, 302, 308) comprising a superconducting quantum interference device (SQUID) loop (104, 210); a superconducting loop (106, 212, 304, 402, 406, 502, 506) inductively coupled to the SQUID loop (104, 210); and a flux bias line (108, 214, 306, 404, 408 504, 508) inductively coupled to the superconducting loop (106, 212, 304, 402, 406, 502), wherein the superconducting loop (106, 212, 304, 402, 406, 502, 506) is formed from a superconducting material having a critical temperature that is a lower temperature than a critical temperature of any superconducting material of the tunable qubit (102, 208, 302, 308), and wherein, in operation, the superconducting loop (106, 212, 304, 402, 406, 502, 506) provides a persistent bias to the tunable qubit (102, 208, 302, 308).
A nicotine-binding antibody or nicotine-binding fragment thereof, comprising the variable region of a heavy chain sequence of SEQ ID NO: 27 and the variable region of a light chain sequence of SEQ ID NO: 28.
An electrode assembly comprising at least one stacked and folded combination type electrode stack in which a plurality of electrode units are stacked in a state that the electrode units are separated by a sheet of separating film, wherein the stacked and folded combination type electrode stack comprises at least one stepped portion formed of electrode units having different areas and stacked on one another with the sheet of separating film being disposed therebetween, wherein the stacked and folded combination type electrode stack is an electrode stack in which a Z-folded electrode stack is stacked together with a jelly-roll electrode stack, a stacked and fold-ed combination type electrode stack, or a combination thereof by using the separating film, and wherein the stacked and folded combination type electrode stack comprises a stepped portion.
A nanocomposite comprising from about 15 to about 70 weight percent of nonspherical silica nanoparticles dispersed in a curable resin, wherein the nanocomposite comprises less than 2% by weight solvent, and wherein the nonspherical silica nanoparticles comprise a population of clusters of primary spherical silica nanoparticles, the population of clusters having a mean size in the range of from 40 to 900 nanometers as determined by laser diffraction, and the primary spherical silica nanoparticles having a diameter in the range of from 1 to 100 nanometers as determined by transmission electron microscopy.
A device for detecting body movement of a patient, the device comprising: a projection sweep unit configured to obtain from a depth camera image data comprising depth information corresponding to an image showing the patient in bed and to generate at least three projection images of the patient for different viewpoints, a motion detection unit configured to detect motion of the patient in the projection images and to generate at least three motion detection signals indicating if motion is detected or not in a respective projection image, and an analysis unit configured to detect and localize body movements of one or more body parts of the patient based on one or more combinations of the motion detection signals, wherein the analysis unit is configured to detect body movements using auxiliary information comprising any one of bed position, bed orientation, camera location and camera orientation. a projection sweep unit configured to obtain from a depth camera image data comprising depth information corresponding to an image showing the patient in bed and to generate at least three projection images of the patient for different viewpoints, a motion detection unit configured to detect motion of the patient in the projection images and to generate at least three motion detection signals indicating if motion is detected or not in a respective projection image, and an analysis unit configured to detect and localize body movements of one or more body parts of the patient based on one or more combinations of the motion detection signals, wherein the analysis unit is configured to detect body movements using auxiliary information comprising any one of bed position, bed orientation, camera location and camera orientation.
A urinary collecting bag comprising a bag part of a flexible sheet material, said bag part configured for being collapsed in a storage configuration and for being unfolded in a use configuration, the bag part defining a cavity for collecting urine, the urinary collecting bag further comprising a first attachment part and a second attachment part, wherein each of the first and second attachment parts (8, 9) comprises cooperating coupling means which couple first and second attachment parts together in the collapsed storage configuration of the bag part, and wherein the first and second attachment parts (8, 9) are disconnected at said coupling means in the unfolded use configuration of the bag part characterised in that at least the first attachment part - and optionally the second attachment part - comprises a fluid conduit between the exterior of the bag part and the cavity for collecting urine.
An external camera device for vehicles, in particular motor vehicles, comprising: a camera holder; camera optics and camera electronics, wherein the camera optics are disposed in the camera holder; an optical window constructed in the camera holder constructed in front of the camera optics; and a flow channel constructed in the camera holder that guides a heat-transport fluid, wherein the flow channel includes an inlet and an outlet for supplying and removing the heat-transport fluid, characterized in that the flow channel is thermally coupled to the camera optics, that the inlet of the flow channel can be connected to the ventilation system or the air-conditioning system of the vehicle, and that the camera electronics are disposed in the camera holder outside the vehicle, and that the flow channel is thermally coupled to the camera electronics. a camera holder; camera optics and camera electronics, wherein the camera optics are disposed in the camera holder; an optical window constructed in the camera holder constructed in front of the camera optics; and a flow channel constructed in the camera holder that guides a heat-transport fluid, wherein the flow channel includes an inlet and an outlet for supplying and removing the heat-transport fluid, characterized in that the flow channel is thermally coupled to the camera optics, that the inlet of the flow channel can be connected to the ventilation system or the air-conditioning system of the vehicle, and that the camera electronics are disposed in the camera holder outside the vehicle, and that the flow channel is thermally coupled to the camera electronics.
Sliding element having a substrate and having at least two layers which are applied to the substrate and which comprise a sliding layer material, wherein the sliding layer material comprises a sliding lacquer which has at least one cross-linkable binding agent or at least one refractory thermoplastic material or a material which has a matrix comprising at least one refractory thermoplastic material or at least one thermosetting material, and the sliding layer material contains Fe 2 O 3.
A CD33 specific chimeric antigen receptor having a polypeptide structure selected from V1 and V3 as illustrated in Figure 2, wherein said structure V1 comprises (a) an extra cellular ligand binding-domain comprising VH and VL from a monoclonal anti-CD33 antibody, (b) a FcγRIIIα hinge, (c) a CD8α transmembrane domain and (d) a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB; and wherein said structure V3 comprises (a) an extra cellular ligand binding-domain comprising VH and VL from a monoclonal anti-CD33 antibody, (b) a CD8α hinge, (c) a CD8α transmembrane domain and (d) a cytoplasmic domain including a CD3 zeta signaling domain and a co-stimulatory domain from 4-1BB.
A process for cooperative aerial inter-antenna beamforming for communication between (a) multiple moving platforms (9, 90, 91), each platform having an aerial antenna (15, 16, 94) mounted thereon, such that one or more of the aerial antennas (15, 16, 94) have variable positions and orientations over time, and (b) at least one antenna mounted on user equipment (11, 96) having a lower altitude than the aerial antennas (15, 16, 94); the process involving transmitting data relating to the positions and orientations of the aerial antennas to a processing system, the processing system (1, 53) determining beamforming instructions for the aerial antennas based on the data relating to the positions and orientations of the aerial antennas; calculating and transmitting the beamforming instructions to the aerial antennas (15, 16, 94), the aerial antennas thereby transmitting or receiving respective component signals (6, 7, 95) associated with each user antenna, the component signals (6, 7, 95) associated with each user antenna having essentially the same information content but differing in their phase, so as to form a cooperative beam from the cooperative sum of the signals between the aerial antennas (15, 16, 94) and the user antenna, wherein the respective position of each aerial antenna is determined using a method involving two stages, the first stage being to determine by differential GNSS, a first position of the antenna within the limits of accuracy achievable; the second stage being to detect the signals from each of multiple ground stations by correlating some or all the antenna elements on the aerial antenna, finding the phase of the signal from each ground station by trialing many different relative delays to the signals received at each ground station and finding the delay that maximizes the signals received from each ground station and thereby tuning a range from each individual ground station to the aerial antenna to give a more precise distance within the volume defined by the first stage; the second stage further comprising finding the antenna position from the intersection of the ranges from each individual ground station to the aerial antenna.