mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a semiconductor structure, the method comprising: providing a substrate, forming a semiconductor layer over a top surface of the substrate, the semiconductor layer including Si and Ge, and annealing the semiconductor layer, characterised in that: the Si and Ge of the semiconductor layer are provided by: a plurality of first SiGe columns each having a width (W 1); and a plurality of second SiGe columns each having a width (W 2), wherein the second columns have a higher concentration of Ge than the first columns, wherein the columns are distributed alternately to define an initial compositional variation within the semiconductor layer which varies periodically with a period (P 2) within the semiconductor layer in a direction perpendicular to a semiconductor layer deposition direction, and wherein the annealing step involves exposure of the semiconductor layer to a temperature which is sufficient to cause a reduction in the initial compositional variation. providing a substrate, forming a semiconductor layer over a top surface of the substrate, the semiconductor layer including Si and Ge, and annealing the semiconductor layer, the Si and Ge of the semiconductor layer are provided by: a plurality of first SiGe columns each having a width (W 1); and a plurality of second SiGe columns each having a width (W 2), a plurality of first SiGe columns each having a width (W 1); and a plurality of second SiGe columns each having a width (W 2), wherein the second columns have a higher concentration of Ge than the first columns, wherein the columns are distributed alternately to define an initial compositional variation within the semiconductor layer which varies periodically with a period (P 2) within the semiconductor layer in a direction perpendicular to a semiconductor layer deposition direction, and wherein the annealing step involves exposure of the semiconductor layer to a temperature which is sufficient to cause a reduction in the initial compositional variation.
A method of transmitting a frame in a wireless local area network, WLAN, the method comprising: transmitting, by an access point, AP, a Request to Send, RTS, frame for medium protection to a plurality of stations, STAs, through a plurality of channels, wherein the RTS frame comprises identification, ID, information on each of the plurality of STAs and channel information on a channel allocated for each of the plurality of STAs to transmit a Clear to Send, CTS, frame; receiving, by the AP, a CTS frame from the plurality of STAs in response to the RTS frame through an allocated channel, wherein the allocated channel being at least one channel among the plurality of channels determined based on the RTS frame; and transmitting, by the AP, downlink data to each of the plurality of STAs through the allocated channel based on orthogonal frequency division multiple access, OFDMA on an overlapping time resource. transmitting, by an access point, AP, a Request to Send, RTS, frame for medium protection to a plurality of stations, STAs, through a plurality of channels, wherein the RTS frame comprises identification, ID, information on each of the plurality of STAs and channel information on a channel allocated for each of the plurality of STAs to transmit a Clear to Send, CTS, frame; receiving, by the AP, a CTS frame from the plurality of STAs in response to the RTS frame through an allocated channel, wherein the allocated channel being at least one channel among the plurality of channels determined based on the RTS frame; and transmitting, by the AP, downlink data to each of the plurality of STAs through the allocated channel based on orthogonal frequency division multiple access, OFDMA on an overlapping time resource.
A device for the storage and transport of biological material including at least one organ, the device comprising: a container designed to contain the organ; an isothermal container configured to house in use the container designed to contain the organ; and a bag system comprising: - a first bag designed to contain the organ to be housed in the container and a storage liquid for storing the organ; and - a second bag designed to contain the first bag, containing the at least one organ and the storage liquid, and a vibration dampening liquid to reduce the transmission of the vibrations on the organ during transport of the organ, wherein the first and the second bags (S1, S2) are housed in the container, wherein the bag system further comprises a third bag designed to contain the container to ensure the sterility thereof during transport, and wherein the device further comprises a pocket designed to house a temperature sensor designed to detect indicative quantities of parameters relating to the condition of the organ in the container, the pocket being inside the or integrated into the first bag or being inside the second bag. a container designed to contain the organ; an isothermal container configured to house in use the container designed to contain the organ; and a bag system comprising: - a first bag designed to contain the organ to be housed in the container and a storage liquid for storing the organ; and - a second bag designed to contain the first bag, containing the at least one organ and the storage liquid, and a vibration dampening liquid to reduce the transmission of the vibrations on the organ during transport of the organ, wherein the first and the second bags (S1, S2) are housed in the container, wherein the bag system further comprises a third bag designed to contain the container to ensure the sterility thereof during transport, and wherein the device further comprises a pocket designed to house a temperature sensor designed to detect indicative quantities of parameters relating to the condition of the organ in the container, the pocket being inside the or integrated into the first bag or being inside the second bag. - a first bag designed to contain the organ to be housed in the container and a storage liquid for storing the organ; and - a second bag designed to contain the first bag, containing the at least one organ and the storage liquid, and a vibration dampening liquid to reduce the transmission of the vibrations on the organ during transport of the organ, wherein the first and the second bags (S1, S2) are housed in the container, wherein the bag system further comprises a third bag designed to contain the container to ensure the sterility thereof during transport, and wherein the device further comprises a pocket designed to house a temperature sensor designed to detect indicative quantities of parameters relating to the condition of the organ in the container, the pocket being inside the or integrated into the first bag or being inside the second bag.
A nearly closed loop system for cleaning a material containing contaminants comprising: - means for transferring heat to said material, the means comprising at least one pipe system which comprises a perforated pipe and a main pipe such that a space is created between the main pipe and the perforated pipe, wherein at least one of the pipes (19,20) is heat-conductive, - means for forcing a contaminant vapor, generated by heating and applying a pressure difference to the contaminated material to a temperature adequate to cause vaporization of the contaminants, out of said material into the pipe system, said means comprising a fan, vacuum or suction system connected to the pipe system, and - a first means for destructing the contaminant vapor, said first means comprising an inlet and an outlet, wherein said inlet is connected to the fan, vacuum or suction system for receiving the contaminant vapor and wherein said outlet is connected to the pipe system for transferring heat of the means for destructing the contaminant vapor to the material, thereby providing a nearly closed loop; characterized in that said first means for destructing the contaminant vapor comprises a first oxidation catalyst and/or a first resistance heater element, wherein the resistance heater element and/or the oxidation catalyst are capable, alone or together, of raising the temperature of the contaminant vapor to a temperature sufficient for destructing said received contaminant vapor and characterized in that the nearly closed loop system comprises a second means for destructing the contaminant vapor comprising a second oxidation catalyst and a second resistance heater element for raising the temperature of the contaminant vapor to a temperature sufficient for destructing said contaminant vapor. - means for transferring heat to said material, the means comprising at least one pipe system which comprises a perforated pipe and a main pipe such that a space is created between the main pipe and the perforated pipe, wherein at least one of the pipes (19,20) is heat-conductive, - means for forcing a contaminant vapor, generated by heating and applying a pressure difference to the contaminated material to a temperature adequate to cause vaporization of the contaminants, out of said material into the pipe system, said means comprising a fan, vacuum or suction system connected to the pipe system, and - a first means for destructing the contaminant vapor, said first means comprising an inlet and an outlet, wherein said inlet is connected to the fan, vacuum or suction system for receiving the contaminant vapor and wherein said outlet is connected to the pipe system for transferring heat of the means for destructing the contaminant vapor to the material, thereby providing a nearly closed loop;
A method of removing a wellbore isolation device comprising: contacting or allowing the wellbore isolation device to come in contact with an electrolyte, wherein at least a portion of the wellbore isolation device comprises a first material and a second material, wherein the first material and the second material form a galvanic couple and wherein the first material is the anode and the second material is the cathode of the galvanic couple, wherein the second material is a fiber or a plurality of fibers, and wherein the fiber or plurality of fibers are uniformly distributed throughout the first material; and causing or allowing at least a portion of the first material to dissolve. contacting or allowing the wellbore isolation device to come in contact with an electrolyte, wherein at least a portion of the wellbore isolation device comprises a first material and a second material, wherein the first material and the second material form a galvanic couple and wherein the first material is the anode and the second material is the cathode of the galvanic couple, wherein the second material is a fiber or a plurality of fibers, and wherein the fiber or plurality of fibers are uniformly distributed throughout the first material; and wherein at least a portion of the wellbore isolation device comprises a first material and a second material, wherein the first material and the second material form a galvanic couple and wherein the first material is the anode and the second material is the cathode of the galvanic couple, wherein the second material is a fiber or a plurality of fibers, and wherein the fiber or plurality of fibers are uniformly distributed throughout the first material; and causing or allowing at least a portion of the first material to dissolve.
A Cystatin C homologue, for inhibiting biological activity of TGF-β binding to its receptor, wherein the Cystatin C homologue comprises: an amino acid sequence fragment comprises at least the last 45 C-terminal amino acids of SEQ ID NO:2 and wherein at least 30 amino acids from the N-terminus of SEQ ID NO: 2 are deleted; or an amino acid sequence differing from SEQ ID NO:2 by deletion of amino acids residues from about position 80 to about position 93 wherein the deletion is sufficient to reduce or abolish the biological activity of the conserved cysteine proteinase inhibitor motif of Cystatin C. an amino acid sequence fragment comprises at least the last 45 C-terminal amino acids of SEQ ID NO:2 and wherein at least 30 amino acids from the N-terminus of SEQ ID NO: 2 are deleted; or an amino acid sequence differing from SEQ ID NO:2 by deletion of amino acids residues from about position 80 to about position 93 wherein the deletion is sufficient to reduce or abolish the biological activity of the conserved cysteine proteinase inhibitor motif of Cystatin C.
An oral care composition comprising: i) an aqueous continuous phase including at one or more polyhydric alcohols; ii) a silica particulate abrasive iii) from 0.05 to 1.0 wt% of the total composition of carbopol and optionally an additional structurant which is xanthan gum, in which the weight ratio of carbopol to additional structurant is greater than 5:1, i) an aqueous continuous phase including at one or more polyhydric alcohols; ii) a silica particulate abrasive iii) from 0.05 to 1.0 wt% of the total composition of carbopol and optionally an additional structurant which is xanthan gum, in which the weight ratio of carbopol to additional structurant is greater than 5:1,
Electrical plug connector component having a contact carrier which has receptacle chambers for electrical male contact elements, each of which can be connected to an electrical connecting cable, and having a protective housing which extends at least section-wise across the contact carrier and which forms feed-through openings for the electrical connecting cables, and having a clamp strap which can be attached to the protective housing in a latching manner and which, following attachment, fastens the electrical connecting cables to the protective housing in a clamping fashion, whereby, for each feed-through opening in the protective housing, the clamp strap has an elastic, integrally moulded resilient arm which, once mounted on the protective housing, presses a connecting cable leading through the feed-through opening against an inner wall of the protective housing in a resilient manner, characterised in that the clamp strap has a basically straight clip bar to each of the end sections of which a snap-in hook is integrally moulded, and that the resilient arms are integrally moulded onto the clip bar, each forming two sections (21, 22) which are aligned approximately perpendicular to each other and merge with each other in a rounded fashion and are both aligned essentially perpendicular to the longitudinal axis of the clip bar.
A system, comprising: a ride vehicle disposed on a ride path; and a launch room vehicle configured to align with the ride vehicle on the ride path and including an at least partial room, the launch room vehicle configured to house the ride vehicle in the at least partial room and to move with the ride vehicle and then break coordination with the ride vehicle such that the ride vehicle launches along the ride path from the at least partial room. a ride vehicle disposed on a ride path; and a launch room vehicle configured to align with the ride vehicle on the ride path and including an at least partial room, the launch room vehicle configured to house the ride vehicle in the at least partial room and to move with the ride vehicle and then break coordination with the ride vehicle such that the ride vehicle launches along the ride path from the at least partial room.
An air conditioner, comprising a case and a panel component; wherein, the panel component comprises a plastic substrate, a display and a metal panel covering an outer surface of the plastic substrate; the metal panel is fixed on the plastic substrate; the plastic substrate is provided with a display mounting structure, and a panel mounting structure for mounting the panel component; the display is mounted on the plastic substrate through the display mounting structure; characterized in that, a light-transmitting structure is arranged in the metal panel in a region corresponding to a location of the display; the light-transmitting structure is embodied as display holes; the display holes are arranged in the metal panel in the region corresponding to the location of the display; the display holes are filled with light-transmitting material; each of the display holes has a diameter ranged from 0.3mm to 2mm; and the panel component is mounted on the case through the panel mounting structure of the panel component. a light-transmitting structure is arranged in the metal panel in a region corresponding to a location of the display; the light-transmitting structure is embodied as display holes; the display holes are arranged in the metal panel in the region corresponding to the location of the display; the display holes are filled with light-transmitting material; each of the display holes has a diameter ranged from 0.3mm to 2mm; and the panel component is mounted on the case through the panel mounting structure of the panel component.
A parking assist method for a vehicle comprising: - receiving at least one image of an environment captured with an omnidirectional vehicle camera mounted at a roof of the vehicle and with an approximately 360-degree field of view at least in the horizontal plane, - providing data of the at least one image to a calculating unit which is configured to determine from the received data at least one parameter set indicative of at least one property (d), which comprises a distance (d) between respective two vehicle roofs located in the environment, of a candidate parking space for the vehicle within a range of the environment which covers a dimension of a plurality of vehicles (51, 52) located in the environment, - determining at least one candidate parking space from the parameter set, and - providing a data representation of at least part of the environment with a representation of the determined at least one candidate parking space through a graphical user interface. - receiving at least one image of an environment captured with an omnidirectional vehicle camera mounted at a roof of the vehicle and with an approximately 360-degree field of view at least in the horizontal plane, - providing data of the at least one image to a calculating unit which is configured to determine from the received data at least one parameter set indicative of at least one property (d), which comprises a distance (d) between respective two vehicle roofs located in the environment, of a candidate parking space for the vehicle within a range of the environment which covers a dimension of a plurality of vehicles (51, 52) located in the environment, - determining at least one candidate parking space from the parameter set, and - providing a data representation of at least part of the environment with a representation of the determined at least one candidate parking space through a graphical user interface.
An internal-pressure rise prevention structure of a speed reducer (1, 1A, 1D, 1E), comprising: a speed reduction mechanism configured to decelerate rotation of an input part (2, 2B) and transmit the decelerated rotation to an output part (3, 3A); a lubricant that lubricates a sliding portion of the speed reduction mechanism; a container having a communication hole formed in a wall surface of the container that defines an internal space, which accommodates the speed reduction mechanism and the lubricant, the communication hole being situated vertically above a level of the lubricant; a valve that is attached in the communication hole and that moderates a pressure increase in the internal space; a stopper; and a spring biasing the valve via the stopper in a valve closing direction, characterized in that the spring is disposed within the communication hole, the valve includes an umbrella-shaped valve body and a stem, the stopper and the spring are attached to the stem, an outer surface of an outer cylinder serves as a seat for the valve, the outer cylinder being a part of the container, and when a pressure in the internal space becomes larger than a restoring force of the spring, the valve moves toward an outer side of a device and opens, the outer side of the device being a side closer to an external space outside the speed reducer. a speed reduction mechanism configured to decelerate rotation of an input part (2, 2B) and transmit the decelerated rotation to an output part (3, 3A); a lubricant that lubricates a sliding portion of the speed reduction mechanism; a container having a communication hole formed in a wall surface of the container that defines an internal space, which accommodates the speed reduction mechanism and the lubricant, the communication hole being situated vertically above a level of the lubricant; a valve that is attached in the communication hole and that moderates a pressure increase in the internal space; a stopper; and a spring biasing the valve via the stopper in a valve closing direction, characterized in that the spring is disposed within the communication hole, the valve includes an umbrella-shaped valve body and a stem, the stopper and the spring are attached to the stem, an outer surface of an outer cylinder serves as a seat for the valve, the outer cylinder being a part of the container, and when a pressure in the internal space becomes larger than a restoring force of the spring, the valve moves toward an outer side of a device and opens, the outer side of the device being a side closer to an external space outside the speed reducer.
System for equipping containers, in particular containers which can be filled with liquid, in particular plastic, glass or metal containers, comprising at least two equipping devices (101, 102, 103), of which at least one equipping device is a printing device, and at least one distribution device for the transport and distribution of containers to be equipped supplied to the system, characterised in that the distribution device is capable of distributing the containers to the equipping devices (101, 102, 103) and wherein the distribution device is configured to transport different individual containers and/or different groups of containers simultaneously on different pre-settable container distribution paths.
A method for configuring timing of an uplink, UL, transmission of a carrier aggregation, CA, system, the method comprising, receiving, by a user equipment, UE, information related to a time advance N TA, for the CA system which includes both at least one frequency division duplex, FDD, cell and at least one time division duplex, TDD, cell, wherein the N TA is configured by a base station, BS, for a first secondary cell, Scell; adjusting, by the UE, a starting timing of a UL subframe in a second Scell, participating in the CA system based on a time advance offset N TA offset, and the N TA; and transmitting data based on the adjusted starting timing of the UL subframe, wherein the first Scell and the second Scell belong to a time advance group, TAG, to which a primary cell, Pcell, does not belong, and the first Scell is duplexed in a mode different from the second Scell.