mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device structure, comprising: a substrate, wherein the substrate comprises a device region and a boundary region, and the device region comprises a channel region and a source/drain region; vertically stacked nanosheet layers formed on the channel region, surrounded by a gate stack, and vertically stacked nanosheet layers (106, 108) parallel to the vertically stacked nanosheet layers formed on the channel region, formed on the boundary region; epitaxial structures formed on the source/drain region surrounded by a first contact structure and separate epitaxial structures formed on the boundary region surrounded by a second contact structure, the contact structures separated by an interlayer dielectric and interconnected by a metal layer on the contact structures; and a power rail formed directly above the epitaxial structures on the boundary region and electrically connected to the metal layer with a via, wherein the epitaxial structures formed on the source/drain region are in contact with the nanosheet layers formed on the channel region and function as a source/drain, and wherein the epitaxial structures on the source/drain region on the device region and the epitaxial structures on the boundary region are spaced apart from each other. a substrate, wherein the substrate comprises a device region and a boundary region, and the device region comprises a channel region and a source/drain region; vertically stacked nanosheet layers formed on the channel region, surrounded by a gate stack, and vertically stacked nanosheet layers (106, 108) parallel to the vertically stacked nanosheet layers formed on the channel region, formed on the boundary region; epitaxial structures formed on the source/drain region surrounded by a first contact structure and separate epitaxial structures formed on the boundary region surrounded by a second contact structure, the contact structures separated by an interlayer dielectric and interconnected by a metal layer on the contact structures; and a power rail formed directly above the epitaxial structures on the boundary region and electrically connected to the metal layer with a via, wherein the epitaxial structures formed on the source/drain region are in contact with the nanosheet layers formed on the channel region and function as a source/drain, and wherein the epitaxial structures on the source/drain region on the device region and the epitaxial structures on the boundary region are spaced apart from each other.
A carbamide peroxide injection for use in treating blood vessel plaque, leukemia, tumor, AIDS and hepatitis in humans, wherein said diseases are treated by generating sufficient amount of singlet oxygen, i.e., 1 O 2, using carbamide peroxide as substrate and a photosensitizer as catalyst, which is activated by the effect of a method using laser or X-ray, wherein said carbamide peroxide is intravenously dripped at a dose of 18-80 mg/kg body weight.
Filling level indicator, composed of a sound-conducting tube and a filling level sensor having an ultrasonic transceiver and a sensor electronics unit, characterized in that the ultrasonic transceiver is disposed in a housing which is composed of a ceramic substrate and a metal cover soldered to the substrate, in that the ultrasonic transceiver by way of at least the sound-emitting region is connected to the substrate, in that the ceramic substrate serves as a circuit board and support for a sensor electronics unit which is disposed next to the ultrasonic transceiver in the housing, and in that the ceramic substrate is connected to the metal cover in a hermetically sealed manner.
An elastic crawler, comprising a crawler body made of an endless elastic body having a ground contact surface and an outer and inner tread surface opposite to the ground contact surface in a crawler height direction with one or two protrusions and faces (2a, 2b,2c) on each side of each protrusion in a crawler width direction, the faces being adapted to be depressed by roller wheels (11; 12; 13) having left and right tread surfaces (11b, 11c; 12a, 12b; 13a, 13b), and a plurality of lugs disposed on the ground contact surface of the crawler body, wherein an inclined surface (7a, 7b, 7c) is formed on one side portion in relation to a center position in the crawler width direction on the ground-contact surface side of the crawler body toward a vicinity of one side end edge in the crawler width direction and gradually reduces a crawler thickness in the height direction, characterized in that the other side portion in relation to a center position in the crawler width direction on the ground-contact surface side of the crawler body toward a vicinity of the other side end edge in the crawler width direction is not formed into an inclined surface and comes into contact with a flat surface when moving on it, the inclined surface (7a, 7b, 7c) starts, in the crawler width direction, from a position within a range from the outer side of the outermost protrusion either to the outer side of the other protrusion, if there are two protrusions, or to the face (2b; 2c) adapted to be depressed by roller wheel on the other side of the protrusion, if there is one protrusion, and the inclined surface (7a, 7b, 7c) does not contact the ground when traveling on the flat surface.
A fastening of a blow-moulded component to a carrier component, the blow-moulded part having at least one moulded-on tab for fastening, characterised in that the carrier component has a latching hook and the tab has an elongate recess, so the latching hook can engage behind the tab through the recess, the latching hook being more rigid than the tab.
A method performed by a network entity corresponding to a central unit, CU, of a secondary node, SN, in a wireless communication system, the method being characterized by comprising: transmitting, to a network entity corresponding to a distributed unit, DU, of the SN, a request message for requesting a context setup of a user equipment, UE, the request message including first identification information of at least one candidate primary secondary cell, PSCell, and second identification information of at least one secondary cell, SCell, to be setup; and receiving, from the network entity corresponding to the DU, a response message for confirming the context setup of the UE, the response message including third identification information of at least one SCell failed to setup in response to the second identification information of the request message. transmitting, to a network entity corresponding to a distributed unit, DU, of the SN, a request message for requesting a context setup of a user equipment, UE, the request message including first identification information of at least one candidate primary secondary cell, PSCell, and second identification information of at least one secondary cell, SCell, to be setup; and receiving, from the network entity corresponding to the DU, a response message for confirming the context setup of the UE, the response message including third identification information of at least one SCell failed to setup in response to the second identification information of the request message.
A container indexing assembly, comprising; a. an indexing wheel; b. a conveyor chain configured for receiving a mixed stream of bottles and cans from the indexing wheel; and c. a series of container indexing arms arranged on the conveyor chain for movement with the conveyor chain, said container indexing arms each configured for indexing a bottle or a can by its centerline as it is received from the indexing wheel. wherein driven movement of the conveyor chain is transferred to drive the indexing wheel by means of one or more belt drive pulleys through a speed reduction assembly such that a fixed spatial relationship is maintained between the indexing wheel supplying the mixed stream of bottles and cans, and the conveyor chain and indexing arms receiving said mixed stream of bottles and cans, and wherein the fixed spatial relationship is maintained at linear and non-linear speeds. a. an indexing wheel; b. a conveyor chain configured for receiving a mixed stream of bottles and cans from the indexing wheel; and c. a series of container indexing arms arranged on the conveyor chain for movement with the conveyor chain, said container indexing arms each configured for indexing a bottle or a can by its centerline as it is received from the indexing wheel. wherein driven movement of the conveyor chain is transferred to drive the indexing wheel by means of one or more belt drive pulleys through a speed reduction assembly such that a fixed spatial relationship is maintained between the indexing wheel supplying the mixed stream of bottles and cans, and the conveyor chain and indexing arms receiving said mixed stream of bottles and cans, and wherein the fixed spatial relationship is maintained at linear and non-linear speeds.
A connection rod for a tongue manipulation device system, the connection rod comprising: a first coupling part configured to couple the distal end of the connection rod to a tongue advancer; a second coupling part configured to couple the proximal end of the connection rod to an implant tool or a removal tool, wherein the connection rod is configured to transmit a tension or pulling force from the implant tool or the removal tool to the tongue advancer such that the tongue advancer is configured to be retracted within the implant tool or removal tool respectively, and characterized in that the connection rod is at least partially hollow and configured to receive the tongue advancer, and a tongue advancer tether attached to the tongue advancer, at least partially within itself. a first coupling part configured to couple the distal end of the connection rod to a tongue advancer; a second coupling part configured to couple the proximal end of the connection rod to an implant tool or a removal tool, wherein the connection rod is configured to transmit a tension or pulling force from the implant tool or the removal tool to the tongue advancer such that the tongue advancer is configured to be retracted within the implant tool or removal tool respectively, and characterized in that the connection rod is at least partially hollow and configured to receive the tongue advancer, and a tongue advancer tether attached to the tongue advancer, at least partially within itself.
A light-duty liquid detergent comprising water, 0.1 to 30 wt.% of at least one anionic surfactant selected from the group consisting of fatty alkyl sulfates, fatty alkyl ether sulfates, paraffin sulfonates, olefin sulfonates, alkyl aryl sulfonates, alkyl ester sulfonates, fatty ester sulfonates, sulfosuccinate esters, organic phosphates, alkyl alkoxylated sulfates, and sulfonated estolides, and 0.1 to 10 wt.% of at least one secondary surfactant which is derived from a metathesis-derived C 10 -C 17 monounsaturated acid or its ester derivatives and which is selected from the group consisting of:
Pesticidal mixture active against Rhynchophorus ferrugineus comprising the following active ingredients: permethrin; cypermethrin; lambda-cyhalothrin; chlorpyrifos methyl and/or chlorpyrifos ethyl; benzisothiazolin-3-one; piperonyl butoxide; imidacloprid; wherein, being 100% the total weight of said active ingredients, they are present in the following single percentages by weight: permethrin: 10.0 ± 5.0% cypermethrin: 7.8 ± 5.0% lambda-cyhalothrin: 2.5 ± 1.0% chlorpyrifos methyl and/or ethyl: 34.4 ± 10.0% benzisothiazolin-3-one: 2.0 ± 1.0% piperonyl butoxide: 12.9 ± 5.0% imidacloprid: 30.4 ± 10.0%.
An ultrasonic surgical instrument for being introduced into a body cavity of a patient that has been insufflated with insufflation media, comprising: a housing having an elongated shaft; a waveguide extending from a distal end of the shaft; a coolant inlet port defined in an outer surface of the elongated shaft; a coolant outlet port; and characterised by a coolant pump disposed within the housing and configured to move insufflation media within the body cavity, as a coolant, from the coolant inlet port to the waveguide via the coolant outlet port. a housing having an elongated shaft; a waveguide extending from a distal end of the shaft; a coolant inlet port defined in an outer surface of the elongated shaft; a coolant outlet port; and characterised by a coolant pump disposed within the housing and configured to move insufflation media within the body cavity, as a coolant, from the coolant inlet port to the waveguide via the coolant outlet port.
A continuous galvanizing line having an annealing furnace of an all radiant tube heating type, the line comprising: a moisture removal device with which an atmospheric gas in the annealing furnace is collected and moisture is removed from the gas and then the gas is returned to the furnace, characterized in that dew-point meters, with which the dew-point of the atmospheric gas is observed, and the outlets, through which the atmospheric gas in the furnace is collected, being placed at least at two points (A, B) which respectively exist on a side wall in the vicinity of the entrance of the annealing furnace and on a side wall in the vicinity of the furnace top or the furnace bottom at the position where a steel sheet has a maximum end-point temperature, and inlets, through which the atmospheric gas from which moisture has been removed with the moisture removal device is fed into the furnace, being placed at two points (A', B') which respectively exist on side walls opposite to said two points (A, B) in the height direction of the furnace, and thereby making it possible to steadily control the dew-point of the atmospheric gas to be -45°C or lower and -80°C or higher throughout the whole area of the annealing furnace. a moisture removal device with which an atmospheric gas in the annealing furnace is collected and moisture is removed from the gas and then the gas is returned to the furnace, characterized in that dew-point meters, with which the dew-point of the atmospheric gas is observed, and the outlets, through which the atmospheric gas in the furnace is collected, being placed at least at two points (A, B) which respectively exist on a side wall in the vicinity of the entrance of the annealing furnace and on a side wall in the vicinity of the furnace top or the furnace bottom at the position where a steel sheet has a maximum end-point temperature, and inlets, through which the atmospheric gas from which moisture has been removed with the moisture removal device is fed into the furnace, being placed at two points (A', B') which respectively exist on side walls opposite to said two points (A, B) in the height direction of the furnace, and thereby making it possible to steadily control the dew-point of the atmospheric gas to be -45°C or lower and -80°C or higher throughout the whole area of the annealing furnace.
A heat-resistant glass (10; 20; 30) for a top plate for a cooker, the heat-resistant glass (10; 20; 30) including a transparent glass substrate and a design layer (13; 23; 33) provided on one of two principal surfaces (1a, 1b) of the transparent glass substrate, the design layer (13; 23; 33) having a pattern visible when viewed through the other principal surface of the transparent glass substrate, the design layer (13; 23; 33) comprising: a first layer (11; 21; 31) provided on the one principal surface of the transparent glass substrate and having a sparse region (11a; 31a) and a dense region (11b; 31b) each formed according to the pattern; and a second layer (12; 22; 32) provided uniformly to cover the first layer, wherein the first layer (11; 21; 31) and the second layer (12; 22; 32) contain each an inorganic pigment or a metallic pigment dispersed in a glass matrix serving as a binder, or wherein the first layer (11; 21; 31) and the second layer (12; 22; 32) contain each an inorganic pigment or a metallic pigment dispersed in a resin binder. a first layer (11; 21; 31) provided on the one principal surface of the transparent glass substrate and having a sparse region (11a; 31a) and a dense region (11b; 31b) each formed according to the pattern; and a second layer (12; 22; 32) provided uniformly to cover the first layer, wherein the first layer (11; 21; 31) and the second layer (12; 22; 32) contain each an inorganic pigment or a metallic pigment dispersed in a glass matrix serving as a binder, or wherein the first layer (11; 21; 31) and the second layer (12; 22; 32) contain each an inorganic pigment or a metallic pigment dispersed in a resin binder.
Ballast for underwater diving belt, which ballast comprises a metal core covered with a coating, and means for the assembly thereof with a belt-strip, the metal core has an outer surface which comprises: - two front faces (411, 412), - a peripheral face connecting said front faces (411, 412), and - two through slots, opening at the level of said front faces (411, 412), each adapted to be used as a passage for a belt strip, characterised in that said coating is in the form of an add-on shell consisting of the assembly of two shell parts (6, 7) which are made of a plastic material and which are held around said metal core by fastening means, which two shell parts (6, 7), complementary, each comprise: - a main wall (63, 73) covering a front face (411, 412) of the metal core, said main wall (63, 73) comprising two openings (632, 732) each facing one of the through slots of the metal core, - a peripheral sleeve (64, 74) connected to a peripheral edge (631, 731) of said main wall (63, 73), covering a portion of the height of the peripheral face of the metal core, and - two central sleeve (65, 75), each connected to one of said openings (632, 732), covering a portion of the height of one of the through slots of the metal core. the metal core has an outer surface which comprises: - two front faces (411, 412), - a peripheral face connecting said front faces (411, 412), and - two through slots, opening at the level of said front faces (411, 412), each adapted to be used as a passage for a belt strip, - two front faces (411, 412), - a peripheral face connecting said front faces (411, 412), and - two through slots, opening at the level of said front faces (411, 412), each adapted to be used as a passage for a belt strip, characterised in that said coating is in the form of an add-on shell consisting of the assembly of two shell parts (6, 7) which are made of a plastic material and which are held around said metal core by fastening means, which two shell parts (6, 7), complementary, each comprise: - a main wall (63, 73) covering a front face (411, 412) of the metal core, said main wall (63, 73) comprising two openings (632, 732) each facing one of the through slots of the metal core, - a peripheral sleeve (64, 74) connected to a peripheral edge (631, 731) of said main wall (63, 73), covering a portion of the height of the peripheral face of the metal core, and - two central sleeve (65, 75), each connected to one of said openings (632, 732), covering a portion of the height of one of the through slots of the metal core. - a main wall (63, 73) covering a front face (411, 412) of the metal core, said main wall (63, 73) comprising two openings (632, 732) each facing one of the through slots of the metal core, - a peripheral sleeve (64, 74) connected to a peripheral edge (631, 731) of said main wall (63, 73), covering a portion of the height of the peripheral face of the metal core, and - two central sleeve (65, 75), each connected to one of said openings (632, 732), covering a portion of the height of one of the through slots of the metal core.
A method performed by a UE for mapping of non-IP based application data packets onto bearers for Quality of Service, QoS, differentiation, comprising: upon establishment of a bearer associated with a QoS, associating at least one tag value with the bearer, wherein a Vehicle-to-Anything, V2X, application triggers establishing the bearer, the bearer being non-IP Evolved Packet System, EPS; attaching, at an application layer, a tag to a non-IP based packet for enabling packet differentiation when passing the packet to a lower layer; mapping, by the lower layer, the packet onto the bearer using the at least one tag value, wherein the tag is used to decide on which bearer the packet should be mapped; and selecting, using the tag, which path to transmit the packet, wherein the tag is used for QoS differentiation and enforcement when the packet is transmitted. upon establishment of a bearer associated with a QoS, associating at least one tag value with the bearer, wherein a Vehicle-to-Anything, V2X, application triggers establishing the bearer, the bearer being non-IP Evolved Packet System, EPS; attaching, at an application layer, a tag to a non-IP based packet for enabling packet differentiation when passing the packet to a lower layer; mapping, by the lower layer, the packet onto the bearer using the at least one tag value, wherein the tag is used to decide on which bearer the packet should be mapped; and selecting, using the tag, which path to transmit the packet, wherein the tag is used for QoS differentiation and enforcement when the packet is transmitted.
A battery pack (202; 203) having a plurality of unit cells (101a, 101b1, 101b2; 101) electrically connected to each other, wherein the unit cells (101a, 101b1, 101b2; 101) are arranged in a width direction of the battery pack (202; 203) in an upright fashion in a state in which the unit cells (101a, 101b1, 101b2; 101) are spaced apart from each other to form coolant flow channels, thereby constituting a battery module layer (100A, 100B), and two or more battery module layers (100A, 100B) are mounted in a pack case such that the battery module layers (100A, 100B) are stacked in a height direction of the battery pack (202; 203), and wherein the battery pack (202; 203) comprises a coolant introduction part, through which a coolant is introduced into the two or more battery module layers (100A, 100B) to simultaneously cool some or all of the unit cells (101a, 101b1, 101b2; 101) in the two or more battery module layers (100A, 100B), and a coolant discharge part (122; 123), through which the coolant, having passed the unit cells (101a, 101b1, 101b2; 101), is discharged. wherein the coolant introduction part is divided into two or more branches (112a, 112b; 113a, 113b) in the vertical direction of the battery pack (202; 203), and characterized in that the coolant introduction part comprises a first branch introduction part (112a; 113a), through which the coolant is simultaneously introduced into all unit cells of at least one battery module layer and some unit cells (101b1) of the other battery module layer(s) excluding the at least one battery module layer, and a second branch introduction part (112b; 113b), through which the coolant is simultaneously introduced into the other unit cells (101b2) of the other battery module layer(s).