mhurhangee/patent-ind-claim-en huggingface dataset:
A backside-illuminated avalanche sensor comprising: an epitaxial silicon layer ; a thin highly doped p-type layer , a first n-type doped layer and a pure boron layer disposed in this order on a light-sensitive surface of the epitaxial silicon layer , and circuits formed on an opposing surface of the epitaxial silicon layer , wherein the epitaxial silicon layer comprises one of intrinsic silicon and p-type doped silicon with less than 2x10 13 dopant atoms per cubic centimeter (cm -3 ), wherein the circuits comprise transistors having an n-type doped buried channel, wherein at least some of the transistors are fabricated in a grounded p+ well with a dopant concentration greater than 10 16 dopant atoms cm -3 which is laterally adjacent to a second n-type doped layer which forms a buried channel that is used to collect and transfer electrons, wherein the thin highly doped p-type layer comprises p-type doped silicon with a dopant concentration greater than 5x10 18 dopant atoms cm -3 , and a thickness of less than 50nm, and wherein the first n-type doped layer comprises n-type doped silicon with a dopant concentration between 5x10 15 dopant atoms cm -3 and 10 17 dopant atoms cm -3 , and a thickness of between 1 μm and 5 pm, and wherein the sensor further comprises means for maintaining the pure boron layer at a negative potential of between - 10V and -400V relative to the opposing surface of the epitaxial layer . an epitaxial silicon layer ; a thin highly doped p-type layer , a first n-type doped layer and a pure boron layer disposed in this order on a light-sensitive surface of the epitaxial silicon layer , and circuits formed on an opposing surface of the epitaxial silicon layer , wherein the epitaxial silicon layer comprises one of intrinsic silicon and p-type doped silicon with less than 2x10 13 dopant atoms per cubic centimeter (cm -3 ), wherein the circuits comprise transistors having an n-type doped buried channel, wherein at least some of the transistors are fabricated in a grounded p+ well with a dopant concentration greater than 10 16 dopant atoms cm -3 which is laterally adjacent to a second n-type doped layer which forms a buried channel that is used to collect and transfer electrons, wherein the thin highly doped p-type layer comprises p-type doped silicon with a dopant concentration greater than 5x10 18 dopant atoms cm -3 , and a thickness of less than 50nm, and wherein the first n-type doped layer comprises n-type doped silicon with a dopant concentration between 5x10 15 dopant atoms cm -3 and 10 17 dopant atoms cm -3 , and a thickness of between 1 μm and 5 pm, and wherein the sensor further comprises means for maintaining the pure boron layer at a negative potential of between - 10V and -400V relative to the opposing surface of the epitaxial layer .
Anchoring element for anchoring in a borehole in a material, the anchoring element (1; 1a) comprising a. a cylindrical core having i. an insertion end , ii. an opposite outer end , iii. a screw-in direction orientated from the outer end to the insertion end , iv. a central longitudinal axis orientated parallel to the screw-in direction , b. a cutting thread , formed integrally with the core and extending from the insertion end along a cutting thread portion (A G ), for screwing this into the borehole, c. a fixing thread , arranged in the core and open outwards counter to the screw-in direction , for fixing a fixing element, d. a torque transmission means , arranged on the core , for transmitting a screw-in torque from a tool to the core , e. a countersunk head , which is arranged on the outer end and of which the outer face tapers conically along the screw-in direction , characterised by f. at least one projection (13; 13a) arranged on the outer face , the at least one projection (13; 13a) having a projection depth (t), orientated perpendicular to the outer face , which is variable along the screw-in direction . a. a cylindrical core having i. an insertion end , ii. an opposite outer end , iii. a screw-in direction orientated from the outer end to the insertion end , iv. a central longitudinal axis orientated parallel to the screw-in direction , i. an insertion end , ii. an opposite outer end , iii. a screw-in direction orientated from the outer end to the insertion end , iv. a central longitudinal axis orientated parallel to the screw-in direction , b. a cutting thread , formed integrally with the core and extending from the insertion end along a cutting thread portion (A G ), for screwing this into the borehole, c. a fixing thread , arranged in the core and open outwards counter to the screw-in direction , for fixing a fixing element, d. a torque transmission means , arranged on the core , for transmitting a screw-in torque from a tool to the core , e. a countersunk head , which is arranged on the outer end and of which the outer face tapers conically along the screw-in direction , characterised by f. at least one projection (13; 13a) arranged on the outer face , the at least one projection (13; 13a) having a projection depth (t), orientated perpendicular to the outer face , which is variable along the screw-in direction .
A slot die coater , comprising: an upper plate ; a lower plate ; and at least two individual lane shims interposed between the upper plate and the lower plate to form a slot , wherein the shim includes a fixing pin to improve positional precision when fixing to the upper plate or the lower plate and a fixing bolt for fixing to the upper plate or the lower plate , wherein the slot die coater further comprises a manifold to hold a coating solution in the lower plate , wherein the shim is mounted on a land portion in front of the manifold , wherein the fixing bolt is inserted into a fixing bolt groove of the lower plate through the shim , and wherein the shim has a fixing bolt hole in alignment with the fixing bolt groove , and the fixing bolt hole and the fixing bolt groove have a margin in a front-rear direction, which is a delivery direction, and there is no margin in a left-right direction, which is a lengthwise direction of the slot die coater perpendicular to the delivery direction. an upper plate ; a lower plate ; and at least two individual lane shims interposed between the upper plate and the lower plate to form a slot , wherein the shim includes a fixing pin to improve positional precision when fixing to the upper plate or the lower plate and a fixing bolt for fixing to the upper plate or the lower plate , wherein the slot die coater further comprises a manifold to hold a coating solution in the lower plate , wherein the shim is mounted on a land portion in front of the manifold , wherein the fixing bolt is inserted into a fixing bolt groove of the lower plate through the shim , and wherein the shim has a fixing bolt hole in alignment with the fixing bolt groove , and the fixing bolt hole and the fixing bolt groove have a margin in a front-rear direction, which is a delivery direction, and there is no margin in a left-right direction, which is a lengthwise direction of the slot die coater perpendicular to the delivery direction.
A method performed by an integrated access and backhaul, IAB, node, the method comprising: in response to expiry of a radio link failure, RLF, timer , determining a failure in a backhaul link between the IAB node and an uplink IAB node; in response to determining the failure in the backhaul link, determining whether there is another IAB node available for backhaul link reestablishment ; and in response to determining that there is not another IAB node available for backhaul link reestablishment, transmitting, to a downlink IAB node, a signaling message indicating the failure in the backhaul link. in response to expiry of a radio link failure, RLF, timer , determining a failure in a backhaul link between the IAB node and an uplink IAB node; in response to determining the failure in the backhaul link, determining whether there is another IAB node available for backhaul link reestablishment ; and in response to determining that there is not another IAB node available for backhaul link reestablishment, transmitting, to a downlink IAB node, a signaling message indicating the failure in the backhaul link.
A composition comprising: a) an epithelial-to-mesenchymal transformation inhibitor, and b) a nucleic acid encoding a transcription factor. a) an epithelial-to-mesenchymal transformation inhibitor, and b) a nucleic acid encoding a transcription factor.
A pneumatic spraying assembly for a coating product comprising a pneumatic coating product sprayer and a supply line for this pneumatic sprayer from a pressurized coating product source (10-16) to which the supply line is connected by its upstream end , the pneumatic sprayer comprising a sprayer body and a control valve for the flow of the coating product toward a spraying area (Z8) of this product, this valve in turn comprising a needle selectively closing off an outlet orifice of an inner volume (V82) of the body of the sprayer and the spraying assembly defining a flow path (C) for the coating product, from the upstream end of the supply line to the outlet orifice of the inner volume , the flow path including a member connecting the supply line on the body of the sprayer, whereas a flow restrictor for the coating product is mounted on the flow path (C) of the coating product, in the connecting member, to create a pressure loss upstream from the outlet orifice , characterized in that the restrictor is made from a material more flexible than the material of the coupling member , in particular a synthetic material.
Method for creating a stabilized soil wall which forms a delimitation of a water reservoir , using locally available soil, the method comprising the steps of: - supplying soil to the location where a wall element that is to become part of the wall is to be created, - creating a compression space at the location where the wall element is to be created, said method being characterized in that it further comprises the following steps - arranging an amount of soil in the compression space, wherein prior to the arranging of the amount of soil in the compression space to create the wall element , the soil is mixed in a mixing device to obtain a desired soil mixture , wherein the mixing comprises the addition of one or more desired additives based on the mechanical and chemical properties of the supplied soil, wherein during the mixing of the soil cement and/or lime is added as one of the additives in the range of 5-10% of the soil volume and zeolite is added as one of the additives in an amount of 10-20% of the amount of added cement and/or lime volume, - compressing the soil in the compression space to obtain the wall element , wherein the wall element is formed as a block, and wherein the compression of soil is carried out with vibrations and the compression force used lies in the range of 10 - 200 kg/cm 2 , - arranging the wall element at the location where the wall is to be created and compressing subsequent wall elements to form blocks and arranging them adjacent to the first wall element until the desired wall size is achieved. - supplying soil to the location where a wall element that is to become part of the wall is to be created, - creating a compression space at the location where the wall element is to be created, said method being characterized in that it further comprises the following steps - arranging an amount of soil in the compression space, wherein prior to the arranging of the amount of soil in the compression space to create the wall element , the soil is mixed in a mixing device to obtain a desired soil mixture , wherein the mixing comprises the addition of one or more desired additives based on the mechanical and chemical properties of the supplied soil, wherein during the mixing of the soil cement and/or lime is added as one of the additives in the range of 5-10% of the soil volume and zeolite is added as one of the additives in an amount of 10-20% of the amount of added cement and/or lime volume, - compressing the soil in the compression space to obtain the wall element , wherein the wall element is formed as a block, and wherein the compression of soil is carried out with vibrations and the compression force used lies in the range of 10 - 200 kg/cm 2 , - arranging the wall element at the location where the wall is to be created and compressing subsequent wall elements to form blocks and arranging them adjacent to the first wall element until the desired wall size is achieved.
A fiber coupled laser source comprising: a frequency-broadened narrowband seed source, comprising a narrowband seed source having a spectral width of less than 10GHz, wherein an output of the narrowband seed source is broadened to a spectral width of less than 50GHz; a depolarizer (120;122;122D) coupled to an output of the frequency-broadened narrowband seed source and configured to provide a depolarized output, wherein the depolarized output is depolarized on time scales shorter than 50ns; at least one amplifier coupled to an output of the depolarizer, wherein the amplifier is configured to receive and amplify the depolarized output; and an optical fiber connecting the seed source, the depolarizer and the at least one amplifier and configured to receive the amplified radiation from the at least one amplifier, the optical fiber comprising at least one segment of a Polarization Maintaining, PM, fiber having at least two optical axes , wherein the at least one PM fiber segment is located downstream from the depolarizer and is configured to split received depolarized radiation between the at least two optical axes thereof. a frequency-broadened narrowband seed source, comprising a narrowband seed source having a spectral width of less than 10GHz, wherein an output of the narrowband seed source is broadened to a spectral width of less than 50GHz; a depolarizer (120;122;122D) coupled to an output of the frequency-broadened narrowband seed source and configured to provide a depolarized output, wherein the depolarized output is depolarized on time scales shorter than 50ns; at least one amplifier coupled to an output of the depolarizer, wherein the amplifier is configured to receive and amplify the depolarized output; and an optical fiber connecting the seed source, the depolarizer and the at least one amplifier and configured to receive the amplified radiation from the at least one amplifier, the optical fiber comprising at least one segment of a Polarization Maintaining, PM, fiber having at least two optical axes , wherein the at least one PM fiber segment is located downstream from the depolarizer and is configured to split received depolarized radiation between the at least two optical axes thereof.
Lid for a container, in particular for a beverage can, comprising: a lid panel having a break-open region which is at least partially surrounded by a predetermined breaking line , and having a fastening element which is arranged on the lid panel; a lever tab rotatably attached to the fastening element for breaking open the break-open region along the predetermined breaking line in the direction of an underside of the lid panel and thus providing a removal opening in the lid panel; a closure element attached to the lever tab, wherein the closure element for closing the removal opening can be applied to an upper side of the lid panel and sealingly enclose the removal opening; and a locking element for locking the closure element when the removal opening is closed by the closure element; wherein the locking element is arranged on the closure element or the closure element comprises the locking element; characterized in that the locking element is provided in a displaceable or rotatable manner, and the locking element comprises an actuating part for actuation by a user and a latch part coupled to the actuating part for locking the closure element by mechanical interaction of the latch part with the underside of the lid panel. a lid panel having a break-open region which is at least partially surrounded by a predetermined breaking line , and having a fastening element which is arranged on the lid panel; a lever tab rotatably attached to the fastening element for breaking open the break-open region along the predetermined breaking line in the direction of an underside of the lid panel and thus providing a removal opening in the lid panel; a closure element attached to the lever tab, wherein the closure element for closing the removal opening can be applied to an upper side of the lid panel and sealingly enclose the removal opening; and a locking element for locking the closure element when the removal opening is closed by the closure element; wherein the locking element is arranged on the closure element or the closure element comprises the locking element; characterized in that the locking element is provided in a displaceable or rotatable manner, and the locking element comprises an actuating part for actuation by a user and a latch part coupled to the actuating part for locking the closure element by mechanical interaction of the latch part with the underside of the lid panel.
A method of bonding nickel-based superalloys comprising: aligning a first superalloy subcomponent having a gamma-prime solvus g' 1 and a second superalloy subcomponent having a gamma-prime solvus g' 2 , with a nickel-based filler material comprising at least 1.5 wt% boron disposed therebetween; performing a first heat treatment at a temperature T 1 , wherein T 1 is above the solidus of the filler material and below the liquidus of the filler material, wherein the duration of the first heat treatment should be sufficient to partially melt the filler material, and to cause boron to diffuse out from the filler material; and performing a second heat treatment at a temperature T 2 , wherein T 2 is greater than T 1 , and wherein T 2 is greater than or equal to the lower of g' 1 and g' 2 , wherein T 2 should not exceed the solidus temperature of the first or second superalloy subcomponents, and wherein T 2 is held for at least 15 minutes. aligning a first superalloy subcomponent having a gamma-prime solvus g' 1 and a second superalloy subcomponent having a gamma-prime solvus g' 2 , with a nickel-based filler material comprising at least 1.5 wt% boron disposed therebetween; performing a first heat treatment at a temperature T 1 , wherein T 1 is above the solidus of the filler material and below the liquidus of the filler material, wherein the duration of the first heat treatment should be sufficient to partially melt the filler material, and to cause boron to diffuse out from the filler material; and performing a second heat treatment at a temperature T 2 , wherein T 2 is greater than T 1 , and wherein T 2 is greater than or equal to the lower of g' 1 and g' 2 , wherein T 2 should not exceed the solidus temperature of the first or second superalloy subcomponents, and wherein T 2 is held for at least 15 minutes.
A gear-cutting machine in the form of a gear-hobbing machine, gear-grinding machine, power skiving machine or gear shaper for the rolling machining of gear teeth with a gear-cutting tool driven in a rotary movement around its tool axis, comprising an arrangement which has a tool holder for accommodating the gear-cutting tool and is rotatably mounted on a carrier , allowing the tool axis (Y) to be set in a desired orientation, a movement device by means of which the rotary position of the arrangement can be set, and a locking device which allows the arrangement to be secured against being rotated out of a set rotary position, characterised by a protruding arm which is coupled in a non-rotating connection to the arrangement and is a functional element of the movement device, wherein the movement device has a counter-bearing that cooperates with the side of the protruding arm on the opposite side to the non-rotating connection, which counter-bearing is a functional element of the movement device and as such provides the counterforces facilitating the rotation of the arrangement in the form of support forces, whereas a drive for the movement device in an operating position of the gear-cutting machine is formed by a drive of a first linear carriage of the carrier , said drive triggering a translational movement of the arrangement . an arrangement which has a tool holder for accommodating the gear-cutting tool and is rotatably mounted on a carrier , allowing the tool axis (Y) to be set in a desired orientation, a movement device by means of which the rotary position of the arrangement can be set, and a locking device which allows the arrangement to be secured against being rotated out of a set rotary position, characterised by a protruding arm which is coupled in a non-rotating connection to the arrangement and is a functional element of the movement device, wherein the movement device has a counter-bearing that cooperates with the side of the protruding arm on the opposite side to the non-rotating connection, which counter-bearing is a functional element of the movement device and as such provides the counterforces facilitating the rotation of the arrangement in the form of support forces, whereas a drive for the movement device in an operating position of the gear-cutting machine is formed by a drive of a first linear carriage of the carrier , said drive triggering a translational movement of the arrangement .
Structure consisting of two or more semifinished components joined together by a butt joint , said semifinished components being formed from wall panels which are spaced apart by means of rod-shaped and/or planar stabilizing elements that extend substantially at right angles to the planes of the wall panels , said wall panels extending substantially in parallel planes with respect to one another and in each case forming a join at the butt joint , wherein the intermediate spaces between the wall panels can be filled with a curable compound, and wherein positionable multidirectional reinforcing elements are provided in the region of the butt joint , said reinforcing elements cooperating with stabilizing elements and being arranged between the stabilizing elements in such a way as to be movable from a position in which they do not span the butt joint to a second position in which they do span the butt joint , and in that the stabilizing elements are arranged in such a way that free spaces are created for the insertion of the reinforcing elements , characterized in that the positionable multidirectional reinforcing elements are three-directional cages.
Drug delivery device in combination with an electronic module for recording information of the drug delivery device , the drug delivery device comprising a port for connecting to a connector of the electronic module , the electronic module comprising at least one connector , wherein at least one connector is adapted to be connected to a port of the drug delivery device and wherein at least one connector is adapted to be connected to a universal port of a computer distinct from the port of the drug delivery device , characterized in that the port of the computer and the port of the drug delivery device are distinctly shaped, the port of the drug delivery device being a customized port which does not allow connection of a universal connector.