mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: monitoring a utilization metric for a remote unit (106a, 106b, 106c) in a telecommunication system, wherein the utilization metric comprises data indicative of one or more terminal devices being available for communication with the remote unit (106a, 106b, 106c); determining that the remote unit (106a, 106b, 106c) is underutilized based on the monitored utilization metric; configuring the remote unit (106a, 106b, 106c) for a low-power operation in response to determining that the remote unit (106a, 106b, 106c) is underutilized to manage power consumption in the telecommunication system; and executing a scheduling algorithm for determining when the telecommunication system is operating during a historically determined time period of low-utilization, wherein the monitoring of the utilization metric is performed based on determining that the telecommunication system is operating during the historically determined time period of low-utilization. monitoring a utilization metric for a remote unit (106a, 106b, 106c) in a telecommunication system, wherein the utilization metric comprises data indicative of one or more terminal devices being available for communication with the remote unit (106a, 106b, 106c); determining that the remote unit (106a, 106b, 106c) is underutilized based on the monitored utilization metric; configuring the remote unit (106a, 106b, 106c) for a low-power operation in response to determining that the remote unit (106a, 106b, 106c) is underutilized to manage power consumption in the telecommunication system; and executing a scheduling algorithm for determining when the telecommunication system is operating during a historically determined time period of low-utilization, wherein the monitoring of the utilization metric is performed based on determining that the telecommunication system is operating during the historically determined time period of low-utilization.
A driving system for two vehicles positioned one behind the other, said driving system comprises a first vehicle and a second vehicle, the two vehicles (2,3) comprise communication means (4a,4b) and the first vehicle comprises remote driving means as well as acquisition means configured to acquire visual and operating information of the first vehicle, this information is sent by the communication means (4a, 4b) to the second vehicle, the latter comprises viewing means configured to view said information, a driver being positioned in the second vehicle and being able to control the remote driving means (6a, 6b) of the first vehicle as a result of said information, characterized in that the second vehicle is adapted to follow the first vehicle and in that the second vehicle comprises remote driving means, the second vehicle being driven automatically based on the movements of the first vehicle.
A method for transmitting in-band signaling information by a transmitter in a wireless broadcasting system that transmits broadcast service data through a plurality of data physical layer pipes, PLPs, constituting a frame, the method comprising the steps of: determining whether it is possible to include frame index information indicating a location of a data PLP for a first data PLP to be transmitted, in in-band signaling information of a current data PLP for a particular broadcast service; if it is possible to include the frame index information in the in-band signaling information and no data PLP for the particular broadcast service is transmitted within a predefined period of N frames, N>=2, from a current frame, transmitting the in-band signaling information including the frame index information, the frame index information including non-PLP signaling information indicating that no data PLP for the particular broadcast service is transmitted within the predefined period from the current frame; and if it is impossible to include the frame index information in the in-band signaling information and no data PLP for the particular broadcast service is transmitted in an immediately next frame after the current frame, indicating that no data PLP is transmitted in the immediately next frame by emptying the in-band signaling information. determining whether it is possible to include frame index information indicating a location of a data PLP for a first data PLP to be transmitted, in in-band signaling information of a current data PLP for a particular broadcast service; if it is possible to include the frame index information in the in-band signaling information and no data PLP for the particular broadcast service is transmitted within a predefined period of N frames, N>=2, from a current frame, transmitting the in-band signaling information including the frame index information, the frame index information including non-PLP signaling information indicating that no data PLP for the particular broadcast service is transmitted within the predefined period from the current frame; and if it is impossible to include the frame index information in the in-band signaling information and no data PLP for the particular broadcast service is transmitted in an immediately next frame after the current frame, indicating that no data PLP is transmitted in the immediately next frame by emptying the in-band signaling information.
A blood cell lysis reagent comprising: (i) sodium phosphate, (ii) lithium lauryl sulfate at a concentration of from 8% (w/v) to 10% (w/v), (iii) EDTA-Na 2 at a concentration of from 0.5 mM to 5 mM, and (iv) EGTA at a concentration of from 0.5 mM to 5 mM, wherein the reagent has a pH that is greater than 5.5.
A catheter assembly comprising a catheter; and a wetting agent storage chamber in which the catheter is located, wherein the wetting agent storage chamber comprises at least one projection configured to guide the catheter within the wetting agent storage chamber, wherein the at least one projection retains a seal element in the wetting agent storage chamber during withdrawal of the catheter wherein the wetting agent storage chamber comprises at least one radially extending end wall and the at least one projection extends axially within the wetting agent storage chamber, the at least one projection terminating short of the end wall to define a void, wherein the seal element is seated in the void. a catheter; and a wetting agent storage chamber in which the catheter is located, wherein the wetting agent storage chamber comprises at least one projection configured to guide the catheter within the wetting agent storage chamber, wherein the at least one projection retains a seal element in the wetting agent storage chamber during withdrawal of the catheter wherein the wetting agent storage chamber comprises at least one radially extending end wall and the at least one projection extends axially within the wetting agent storage chamber, the at least one projection terminating short of the end wall to define a void, wherein the seal element is seated in the void.
A honeycomb shaped porous ceramic body comprising: a honeycomb shaped substrate which has partition walls made of a porous ceramic material provided with a large number of pores and in which there are formed a plurality of cells (4, 4a, 4b) to become through channels of a fluid passing through the porous ceramic body by the partition walls; and an intermediate layer which is made of a porous ceramic material provided with a large number of pores and having a smaller average pore diameter, as measured by an air flow method described in ASTM F316, as compared with the surface of the substrate and which is disposed at the surface of the substrate, wherein at least a part of the intermediate layer has a structure in which aggregate particles are bonded to one another by a component of an inorganic bonding material, and the component of the inorganic bonding material of the intermediate layer is titania, wherein a thickness of the intermediate layer is 150 μm or more and 500 μm or less, and wherein a substrate thickness of the shortest portion between the cells (4, 4a, 4b) is 0.51 mm or more and 1.55 mm or less, and a ratio of the substrate thickness /the intermediate layer thickness is 2.5 or more and 10 or less. a honeycomb shaped substrate which has partition walls made of a porous ceramic material provided with a large number of pores and in which there are formed a plurality of cells (4, 4a, 4b) to become through channels of a fluid passing through the porous ceramic body by the partition walls; and an intermediate layer which is made of a porous ceramic material provided with a large number of pores and having a smaller average pore diameter, as measured by an air flow method described in ASTM F316, as compared with the surface of the substrate and which is disposed at the surface of the substrate, wherein at least a part of the intermediate layer has a structure in which aggregate particles are bonded to one another by a component of an inorganic bonding material, and the component of the inorganic bonding material of the intermediate layer is titania, wherein a thickness of the intermediate layer is 150 μm or more and 500 μm or less, and wherein a substrate thickness of the shortest portion between the cells (4, 4a, 4b) is 0.51 mm or more and 1.55 mm or less, and a ratio of the substrate thickness /the intermediate layer thickness is 2.5 or more and 10 or less.
A method of applying a light-emitting layer S to the surface of a component T, comprising the steps: (i) providing: (a) a composition Z1 comprising at least one salt of a non-complexed metal M and at least one coordinating solvent, (b) a composition Z2 comprising at least one non-complexed ligand L capable of complexing the metal M, and optionally (c) a composition Z3 comprising at least one host molecule W capable of forming a matrix for the light-emitting layer S; (ii) applying the compositions Z1, Z2 and optionally Z3 in liquid phase to the surface of the component T; and optionally (iii) drying and/or curing the layer S obtained by the application on the surface of the component T, characterized in that the compositions Z1 and Z2 are applied as two separate compositions simultaneously to the surface of the component T, the compositions Z1, Z2 and optionally Z3 mixing themselves on the surface. (i) providing: (a) a composition Z1 comprising at least one salt of a non-complexed metal M and at least one coordinating solvent, (b) a composition Z2 comprising at least one non-complexed ligand L capable of complexing the metal M, and optionally (c) a composition Z3 comprising at least one host molecule W capable of forming a matrix for the light-emitting layer S; (a) a composition Z1 comprising at least one salt of a non-complexed metal M and at least one coordinating solvent, (b) a composition Z2 comprising at least one non-complexed ligand L capable of complexing the metal M, and optionally (c) a composition Z3 comprising at least one host molecule W capable of forming a matrix for the light-emitting layer S; (ii) applying the compositions Z1, Z2 and optionally Z3 in liquid phase to the surface of the component T; and optionally (iii) drying and/or curing the layer S obtained by the application on the surface of the component T,
A coupling assembly comprising: an anchor member; a receiver member having an anchor member end cooperable with the anchor member and having an implant receiving aperture for receiving an implant, the receiver member having a shaped inner surface forming a first rotation-limiting feature; and a seat member disposable within the receiver member between the anchor member and the implant receiving aperture, the seat member including a first surface portion and a second surface portion, the first surface portion having a circular perimeter and the second surface portion having a non-circular perimeter that defines a shaped outer surface forming a second rotation-limiting feature, the first and second rotation- limiting features being engageable to limit rotation of the seat member relative to the receiver member, wherein a transverse cross-section of the seat member includes a length and a width, characterised in that the length is greater than the width, the seat member being arranged so that the length aligns with an axis along which an implant may be received, and the seat member includes a shoulder formed by the circular perimeter of the first surface portion and the non-circular perimeter of the second surface portion, wherein the shoulder is configured to limit axial travel of the seat member within the receiver member. an anchor member; a receiver member having an anchor member end cooperable with the anchor member and having an implant receiving aperture for receiving an implant, the receiver member having a shaped inner surface forming a first rotation-limiting feature; and a seat member disposable within the receiver member between the anchor member and the implant receiving aperture, the seat member including a first surface portion and a second surface portion, the first surface portion having a circular perimeter and the second surface portion having a non-circular perimeter that defines a shaped outer surface forming a second rotation-limiting feature, the first and second rotation- limiting features being engageable to limit rotation of the seat member relative to the receiver member, wherein a transverse cross-section of the seat member includes a length and a width, characterised in that the length is greater than the width, the seat member being arranged so that the length aligns with an axis along which an implant may be received, and the seat member includes a shoulder formed by the circular perimeter of the first surface portion and the non-circular perimeter of the second surface portion, wherein the shoulder is configured to limit axial travel of the seat member within the receiver member.
A battery pack, comprising: at least one battery cell; an evaporator disposed adjacent the at least one battery cell in thermal communication therewith, the evaporator including at least one porous medium and a collector in communication with the porous medium; and a condenser in incoming and outgoing fluid communication with the evaporator, wherein the evaporator includes a first port at which a coolant is received and a second port through which a coolant is discharged, and characterized in that the evaporator extends along a bottom portion of the battery cell in a first direction, the first port and second port are spaced apart along the evaporator in the first direction, and the evaporator extends in a second direction, orthogonal to the first direction, the extension of the evaporator along the second direction adjacent the second port being greater than the extension of the evaporator along the second direction adjacent the first port, wherein the collector extends further downward in the second direction adjacent the second port than adjacent the first port. at least one battery cell; an evaporator disposed adjacent the at least one battery cell in thermal communication therewith, the evaporator including at least one porous medium and a collector in communication with the porous medium; and a condenser in incoming and outgoing fluid communication with the evaporator, wherein the evaporator includes a first port at which a coolant is received and a second port through which a coolant is discharged, and characterized in that the evaporator extends along a bottom portion of the battery cell in a first direction, the first port and second port are spaced apart along the evaporator in the first direction, and the evaporator extends in a second direction, orthogonal to the first direction, the extension of the evaporator along the second direction adjacent the second port being greater than the extension of the evaporator along the second direction adjacent the first port, wherein the collector extends further downward in the second direction adjacent the second port than adjacent the first port.
A power supply for powering an LED light source (10, 110), said power supply comprising: an AC/DC converter (22, 122) arranged to convert an AC voltage into a DC voltage; a power converter adapted to receive said DC voltage and to generate a regulated power to the LED light source, the regulated power including a LED light source voltage and a LED light source current; a voltage sensor (26, Z1) arranged to provide a sensed voltage indicative of a magnitude of the LED light source voltage, a current sensor (25, R1) arranged to provide a sensed current indicative of a magnitude of the LED light source current, and a feedback controller (27, 125) arranged to provide a feedback signal to the power converter based on the sensed voltage and sensed current; wherein the generation of the regulated power is controlled by the feedback signal, characterized in that the power supply further comprises an LED control switch (24, 127) arranged to limit a peak of the LED light source current when the LED light source (10, 110) is connected to the power supply subsequent to an energizing of the power supply, wherein said LED control switch (24, 127) includes: a switch operable to establish a current path from the LED light source to said power converter when the LED light source current is below a peak threshold, said switch further operable to turn off and thereby limit the current path when the LED light source current is above the peak threshold. an AC/DC converter (22, 122) arranged to convert an AC voltage into a DC voltage; a power converter adapted to receive said DC voltage and to generate a regulated power to the LED light source, the regulated power including a LED light source voltage and a LED light source current; a voltage sensor (26, Z1) arranged to provide a sensed voltage indicative of a magnitude of the LED light source voltage, a current sensor (25, R1) arranged to provide a sensed current indicative of a magnitude of the LED light source current, and a feedback controller (27, 125) arranged to provide a feedback signal to the power converter based on the sensed voltage and sensed current; wherein the generation of the regulated power is controlled by the feedback signal, characterized in that the power supply further comprises an LED control switch (24, 127) arranged to limit a peak of the LED light source current when the LED light source (10, 110) is connected to the power supply subsequent to an energizing of the power supply, wherein said LED control switch (24, 127) includes: a switch operable to establish a current path from the LED light source to said power converter when the LED light source current is below a peak threshold, said switch further operable to turn off and thereby limit the current path when the LED light source current is above the peak threshold.
Method for real time monitoring of the current status of a construction site that includes one or more work machines (10, 11), wherein a monitoring means (30, 31) installed on at least one work machine (10, 11) monitors the environment of the work machine (10, 11) in real time and generates corresponding monitoring data, and the generated monitoring data are transmitted by the monitoring means (30, 31) to a processing unit for real time evaluation of the current construction site status, the monitoring means (30, 31) detects and monitors buildings (20, 21) in the machine environment, the processing unit evaluates the current construction progress of the buildings (20, 21) in accordance with a construction schedule by comparing the collected monitoring data with a digital construction site schedule, and the monitoring data comprise a two-dimensional or three-dimensional visual representation of the machine environment, wherein the detected buildings (20, 21) are modeled using a Building-Information-Modeling Software. a monitoring means (30, 31) installed on at least one work machine (10, 11) monitors the environment of the work machine (10, 11) in real time and generates corresponding monitoring data, and the generated monitoring data are transmitted by the monitoring means (30, 31) to a processing unit for real time evaluation of the current construction site status, the monitoring means (30, 31) detects and monitors buildings (20, 21) in the machine environment, the processing unit evaluates the current construction progress of the buildings (20, 21) in accordance with a construction schedule by comparing the collected monitoring data with a digital construction site schedule, and the monitoring data comprise a two-dimensional or three-dimensional visual representation of the machine environment, wherein the detected buildings (20, 21) are modeled using a Building-Information-Modeling Software.
A battery pack, comprising: a bare cell including an electrode assembly comprising a first electrode terminal and a second electrode terminal, a can receiving the electrode assembly, a cap assembly having a cap plate sealing an opening of the can, wherein the first electrode terminal is insulated from the cap plate and extends outward from the cap plate, and the second electrode terminal is formed of the cap plate; a protection circuit module including a first electrode pin arranged at a middle of the protection circuit module and electrically connected to the first electrode terminal and second electrode pins arranged on each side of the protection circuit module and each electrically connected to the second electrode terminal; and a top case, receiving the protection circuit module, being combined with the bare cell. a bare cell including an electrode assembly comprising a first electrode terminal and a second electrode terminal, a can receiving the electrode assembly, a cap assembly having a cap plate sealing an opening of the can, wherein the first electrode terminal is insulated from the cap plate and extends outward from the cap plate, and the second electrode terminal is formed of the cap plate; a protection circuit module including a first electrode pin arranged at a middle of the protection circuit module and electrically connected to the first electrode terminal and second electrode pins arranged on each side of the protection circuit module and each electrically connected to the second electrode terminal; and a top case, receiving the protection circuit module, being combined with the bare cell.