mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device , comprising: a logic die ; a memory die in contact with the logic die and configured to draw a sum amount of current from a current source , wherein the memory die includes: a plurality of through-substrate vias (TSVs) (127, 327-1 ...327-6, 427-1...427-12) formed in the memory die to provide the sum amount of current to the memory die from the current source , wherein each of the plurality of TSVs (127, 327-1...327-6, 427-1...427-12) are configured to provide a portion of the sum amount of current to the memory die from the current source ; at least two interconnection contacts (431-1) associated with a first TSV (427-1 ... 427-3) closer to the current source that are not connected; and an electrical connection between at least two interconnection contacts (431-2) associated with a second TSV (427-4...427-6) that is further in distance from the current source than the first TSV (427-1...427-3). a logic die ; a memory die in contact with the logic die and configured to draw a sum amount of current from a current source , wherein the memory die includes: a plurality of through-substrate vias (TSVs) (127, 327-1 ...327-6, 427-1...427-12) formed in the memory die to provide the sum amount of current to the memory die from the current source , wherein each of the plurality of TSVs (127, 327-1...327-6, 427-1...427-12) are configured to provide a portion of the sum amount of current to the memory die from the current source ; at least two interconnection contacts (431-1) associated with a first TSV (427-1 ... 427-3) closer to the current source that are not connected; and a plurality of through-substrate vias (TSVs) (127, 327-1 ...327-6, 427-1...427-12) formed in the memory die to provide the sum amount of current to the memory die from the current source , wherein each of the plurality of TSVs (127, 327-1...327-6, 427-1...427-12) are configured to provide a portion of the sum amount of current to the memory die from the current source ; at least two interconnection contacts (431-1) associated with a first TSV (427-1 ... 427-3) closer to the current source that are not connected; and an electrical connection between at least two interconnection contacts (431-2) associated with a second TSV (427-4...427-6) that is further in distance from the current source than the first TSV (427-1...427-3).
A compound of formula (I) wherein R 1 is selected from the group consisting of F, Cl, Br, I, CN, NO 2 , C 1-3 -alkyl, -O-(C 1-4 -alkyl), -COOH, -C(=O)-O-(C 1-4 -alkyl), -NH 2 , -NH(C 1-3 -alkyl) and -N(C 1-3 -alkyl) 2 , wherein each alkyl group or sub-group is optionally substituted with 1 or more F atoms; and wherein multiple R 1 may be identical or different if n is 2; R 2 is selected from the group consisting of H and C 1-3 -alkyl; R 3 is C 1-3 -alkyl; R 4 is C 1-3 -alkyl; n is an integer selected from 1 and 2; and m is an integer selected from 0 and 1; wherein in any definition mentioned hereinbefore, if not specified otherwise, any alkyl group or sub-group may be straight-chained or branched and is optionally substituted with 1 or more F atoms, or a salt thereof. R 1 is selected from the group consisting of F, Cl, Br, I, CN, NO 2 , C 1-3 -alkyl, -O-(C 1-4 -alkyl), -COOH, -C(=O)-O-(C 1-4 -alkyl), -NH 2 , -NH(C 1-3 -alkyl) and -N(C 1-3 -alkyl) 2 , wherein each alkyl group or sub-group is optionally substituted with 1 or more F atoms; and wherein multiple R 1 may be identical or different if n is 2; R 2 is selected from the group consisting of H and C 1-3 -alkyl; R 3 is C 1-3 -alkyl; R 4 is C 1-3 -alkyl; n is an integer selected from 1 and 2; and m is an integer selected from 0 and 1;
An X-ray tomography apparatus comprising: an X-ray generator that emits an X-ray beam; an X-ray detector that detects said X-ray beam emitted from said X-ray generator ; a support that supports said X-ray generator and said X-ray detector ; a tomographic layer-of-interest setting unit that sets a tomographic layer of interest (LOI); a turning drive unit that turns said X-ray generator and said X-ray detector relative to said tomographic layer of interest (LOI) about a turning center axis (RA1) set between said X-ray generator and said X-ray detector ; a movement drive unit that moves at least one of said X-ray generator and said X-ray detector relative to said tomographic layer of interest (LOI) in a direction perpendicular to said turning center axis (RA1); an image processor that generates an X-ray tomographic image indicating said tomographic layer of interest (LOI) by performing image processing on a plurality of X-ray projection images generated based on an output signal output from said X-ray detector ; and a controller that controls said turning drive unit and said movement drive unit , characterised in that when a center axis X-ray (CBX1) passing through said turning center axis (RA1) in said X-ray beam is orthogonal to said tomographic layer of interest (LOI), the controller causes said X-ray detector to relatively approach said tomographic layer of interest (LOI) and/or to relatively move said X-ray generator away from said tomographic layer of interest (LOI) as compared to when said center axis X-ray (CBX1) is not orthogonal to said tomographic layer of interest (LOI). an X-ray generator that emits an X-ray beam; an X-ray detector that detects said X-ray beam emitted from said X-ray generator ; a support that supports said X-ray generator and said X-ray detector ; a tomographic layer-of-interest setting unit that sets a tomographic layer of interest (LOI); a turning drive unit that turns said X-ray generator and said X-ray detector relative to said tomographic layer of interest (LOI) about a turning center axis (RA1) set between said X-ray generator and said X-ray detector ; a movement drive unit that moves at least one of said X-ray generator and said X-ray detector relative to said tomographic layer of interest (LOI) in a direction perpendicular to said turning center axis (RA1); an image processor that generates an X-ray tomographic image indicating said tomographic layer of interest (LOI) by performing image processing on a plurality of X-ray projection images generated based on an output signal output from said X-ray detector ; and a controller that controls said turning drive unit and said movement drive unit , characterised in that when a center axis X-ray (CBX1) passing through said turning center axis (RA1) in said X-ray beam is orthogonal to said tomographic layer of interest (LOI), the controller causes said X-ray detector to relatively approach said tomographic layer of interest (LOI) and/or to relatively move said X-ray generator away from said tomographic layer of interest (LOI) as compared to when said center axis X-ray (CBX1) is not orthogonal to said tomographic layer of interest (LOI).
Heat exchanger comprising: - at least one fluid circulation duct, - a manifold into which the circulation duct leads, the manifold comprising a header plate and a header tank connected to the header plate , and - a main gasket between the header tank and the header plate , the manifold comprising a secondary gasket between the header tank and the header plate , the secondary gasket being situated on the outside with respect to the main gasket , the header tank also having a lateral cavity , characterized in that the secondary gasket fills the lateral cavity and is overmoulded on the perimeter of the header tank . - at least one fluid circulation duct, - a manifold into which the circulation duct leads, the manifold comprising a header plate and a header tank connected to the header plate , and - a main gasket between the header tank and the header plate ,
A method for making a structure having a mounting flange comprising: providing a primary composite structure having a circumference; placing at least one guide about the circumference of the primary composite structure ; applying circumferentially oriented core fibers about the circumference of the primary composite structure adjacent to the guide to obtain core fibers having a first core side and a second core side ; applying attachment fibers to the first core side of the core fibers to operably connect the core fibers to the primary composite structure ; repositioning the guide adjacent to the first core side of the core fibers ; applying attachment fibers to the second core side of the core fibers to operably connect the core fibers to the primary composite structure to obtain a mounting flange preform ; and curing the mounting flange preform to obtain an integral mounting flange . placing at least one guide about the circumference of the primary composite structure ; applying circumferentially oriented core fibers about the circumference of the primary composite structure adjacent to the guide to obtain core fibers having a first core side and a second core side ; applying attachment fibers to the first core side of the core fibers to operably connect the core fibers to the primary composite structure ; repositioning the guide adjacent to the first core side of the core fibers ; applying attachment fibers to the second core side of the core fibers to operably connect the core fibers to the primary composite structure to obtain a mounting flange preform ; and curing the mounting flange preform to obtain an integral mounting flange .
System of a reinforced and sealed structural element in a motor vehicle, the system comprising: - a structural element ; - a reinforcing element which has a longitudinal axis and which is disposed in a cavity of the structural element , wherein the reinforcing element comprises walls which extend substantially in the direction of the longitudinal axis , and wherein part-regions of the walls on an external circumference of the reinforcing element form at least one strip which encircles the reinforcing element and which runs transversely to the longitudinal axis of the reinforcing element ; - a first adhesive, wherein the first adhesive interconnects the reinforcing element and the structural element ; characterized in that the system comprises a second adhesive, wherein the second adhesive connects the strip to the structural element . - a structural element ; - a reinforcing element which has a longitudinal axis and which is disposed in a cavity of the structural element , wherein the reinforcing element comprises walls which extend substantially in the direction of the longitudinal axis , and wherein part-regions of the walls on an external circumference of the reinforcing element form at least one strip which encircles the reinforcing element and which runs transversely to the longitudinal axis of the reinforcing element ; - a first adhesive, wherein the first adhesive interconnects the reinforcing element and the structural element ;
A microfluidic cell culture system comprising: at least one culture unit configured on a culture plate comprising: a microfluidic culture chamber; a perfusion barrier separating said microfluidic culture chamber from one or more medium flow channels; a plurality of independent inlet channels; a perfusion well; an outlet reservoir in fluid communication with said microfluidic culture chamber; and a pneumatic manifold; wherein the culture plate is positively sealed to said pneumatic manifold, allowing pressure driven control of the plurality of independent inlet channels so that solutions can be quickly changed over the cells or can be multiplexed or combined in the microfluidic culture chamber; wherein said pneumatic manifold further comprises a heat exchange module for providing a circulating heat controlled gas in a contained gas volume over said microfluidic culture chamber. a microfluidic culture chamber; a perfusion barrier separating said microfluidic culture chamber from one or more medium flow channels; a plurality of independent inlet channels; a perfusion well; an outlet reservoir in fluid communication with said microfluidic culture chamber; and a pneumatic manifold;
An adhered roofing system comprising: i. a roof substrate; ii. a thermoplastic membrane including at least one layer that includes a functionalized thermoplastic polymer, where the functionalized thermoplastic polymer is maleated polypropylene or is a maleated propylene-based polymer; and iii. an adhesive securing the membrane to the substrate, where the adhesive includes a cured residue of a polymer having a silicon-containing hydrolyzable terminal group. i. a roof substrate; ii. a thermoplastic membrane including at least one layer that includes a functionalized thermoplastic polymer, where the functionalized thermoplastic polymer is maleated polypropylene or is a maleated propylene-based polymer; and iii. an adhesive securing the membrane to the substrate, where the adhesive includes a cured residue of a polymer having a silicon-containing hydrolyzable terminal group.
A method of processing at a mediation node configured for data mediation operations in a telecommunication network , the method comprising: receiving an incoming data stream comprising encoded data items encoded according to a first encoding and arranged according to a defined hierarchical structure; storing the incoming data stream as a stored data stream, said stored data stream stored without decoding at a root node of a working data structure that defines further nodes corresponding to a plurality of data items encoded in the stored data stream; identifying a targeted data item in the stored data stream, targeted for data mediation processing; characterized by extracting the targeted data item based on: traversing the defined hierarchical structure of the stored data stream along a traversal path until reaching the targeted data item; and for each intervening data item encountered along the traversal path before reaching the targeted data item, moving , without decoding, the intervening data item from the root node to a corresponding further node in the working data structure ; for the targeted data item, decoding the targeted data item and populating a corresponding further node in the working data structure with the decoded targeted data item; and providing the working data structure for processing of the decoded targeted data item. receiving an incoming data stream comprising encoded data items encoded according to a first encoding and arranged according to a defined hierarchical structure; storing the incoming data stream as a stored data stream, said stored data stream stored without decoding at a root node of a working data structure that defines further nodes corresponding to a plurality of data items encoded in the stored data stream; identifying a targeted data item in the stored data stream, targeted for data mediation processing; characterized by extracting the targeted data item based on: traversing the defined hierarchical structure of the stored data stream along a traversal path until reaching the targeted data item; and for each intervening data item encountered along the traversal path before reaching the targeted data item, moving , without decoding, the intervening data item from the root node to a corresponding further node in the working data structure ; for the targeted data item, decoding the targeted data item and populating a corresponding further node in the working data structure with the decoded targeted data item; and traversing the defined hierarchical structure of the stored data stream along a traversal path until reaching the targeted data item; and for each intervening data item encountered along the traversal path before reaching the targeted data item, moving , without decoding, the intervening data item from the root node to a corresponding further node in the working data structure ; for the targeted data item, decoding the targeted data item and populating a corresponding further node in the working data structure with the decoded targeted data item; and providing the working data structure for processing of the decoded targeted data item.
A method for establishing a communication path in an optical network, the communication path comprising a plurality of sections, wherein the power level of a section is controlled by a respective power control unit of a network node, the method comprising the steps of: in response to a request to establish a communication path , controlling a plurality of power control units to perform a first power-up mode of operation, wherein the first power-up mode of operation comprises the step of setting a power control factor of a respective section of the communication path directly to a value estimated to provide a first power level in a single step; further comprising the steps of controlling each one of the plurality of power control units to perform a second power-up mode of operation, wherein the second power-up mode of operation provides a fine tuning of the first power level to a target power level, wherein the first power-up mode or second power-up mode is performed in two or more sections in parallel in time. in response to a request to establish a communication path , controlling a plurality of power control units to perform a first power-up mode of operation, wherein the first power-up mode of operation comprises the step of setting a power control factor of a respective section of the communication path directly to a value estimated to provide a first power level in a single step; further comprising the steps of controlling each one of the plurality of power control units to perform a second power-up mode of operation, wherein the second power-up mode of operation provides a fine tuning of the first power level to a target power level, wherein the first power-up mode or second power-up mode is performed in two or more sections in parallel in time.
Device for the separation of a product in a liquid fraction and in a non-liquid fraction , whereby it consists of a transport pump which sucks in the product from a barrel or supply device and pumps it under pressure to a transport zone which ends in a cylindrical tube provided with a dewatering zone with lateral perforations, whereby during the transport of the product through the cylindrical tube from the left to the right a part of the liquid fraction of the product is forced out through the perforations (P) of the press zone as a result of the prevalent overpressure such that during the transport movement in the cylindrical tube a press cake is created which due to the pump pressure is forced further through the cylindrical tube to the exit thereof, whereby the exit of the pressed press cake from the cylindrical tube is restricted by a controlled recoiling counter pressure plate which when making room for the exiting dewatered press cake exercises a controlled counter force on this press cake such that the pressure at the entry of the cylindrical tube remains within the desired limits to thus obtain a good separation of liquid and a solid dewatered press cake in the cylindrical tube , characterised in that the counter pressure plate moving in a controlled way not only recoils, but sometimes also stops in a controlled way or even moves against the movement of the press cake and this with varying forces, after which in a following phase the counter pressure plate is moved further to the right in the direction of the moving pressed press cake , such that now no more pressure is exercised on the press cake , and the press cake will subsequently spontaneously break off and fall down in a collector , or is actively removed from the flow path of the digestate by a mechanical separator with a movable ram and this in a direction that is completely or partly perpendicular to the direction of the flow path of the product.
Waveguide radiating element comprising: - an electrically conductive support body inside which a first recess is defined, delimited at the front by a radiating opening , and laterally delimited by at least one side wall ; - at least one electrically conductive impedance matching unit having a portion projecting from said side wall and positioned inside the first recess , the projecting portion having a step or ramp-shaped surface; wherein: - the impedance matching unit comprises an attachment portion adjacent to the projecting portion ; - inside the electrically conductive body a second recess is defined, adjacent to the first recess and communicating with the first recess , inside which the attachment portion of the impedance matching unit is coupled; characterized in that the projecting portion and the attachment portion are two adjacent portions of a same body made in a single piece. - an electrically conductive support body inside which a first recess is defined, delimited at the front by a radiating opening , and laterally delimited by at least one side wall ; - at least one electrically conductive impedance matching unit having a portion projecting from said side wall and positioned inside the first recess , the projecting portion having a step or ramp-shaped surface; - the impedance matching unit comprises an attachment portion adjacent to the projecting portion ; - inside the electrically conductive body a second recess is defined, adjacent to the first recess and communicating with the first recess , inside which the attachment portion of the impedance matching unit is coupled;
A method of performing memory operations in a memory array, the method comprising: providing, as inputs to a compare circuit , true and complement versions of a first single search bit and true and complement versions of a first data bit stored in a data row of the memory array, the compare circuit comprising a multiplexor consisting of two pairs of pass transistors ; comparing the true and complement versions of a first single search bit with the true and complement versions of a first data bit stored in a data row of the memory array, prior to any amplification of the true and complement versions of the first data bit, wherein the comparing comprises enabling only one pair of the two pairs of pass transistors of the multiplexor to generate a first and second output to be used as true and complement sense amplifier inputs respectively; and amplifying the true and complement sense amplifier inputs in a sense amplifier to generate a first single-ended match signal; and aggregating in a NAND gate, the first single-ended match signal with two or more other single-ended match signals from comparing two or more search bits with two or more data bits in the data row to generate a hit or miss indication for the data row. providing, as inputs to a compare circuit , true and complement versions of a first single search bit and true and complement versions of a first data bit stored in a data row of the memory array, the compare circuit comprising a multiplexor consisting of two pairs of pass transistors ; comparing the true and complement versions of a first single search bit with the true and complement versions of a first data bit stored in a data row of the memory array, prior to any amplification of the true and complement versions of the first data bit, wherein the comparing comprises enabling only one pair of the two pairs of pass transistors of the multiplexor to generate a first and second output to be used as true and complement sense amplifier inputs respectively; and amplifying the true and complement sense amplifier inputs in a sense amplifier to generate a first single-ended match signal; and aggregating in a NAND gate, the first single-ended match signal with two or more other single-ended match signals from comparing two or more search bits with two or more data bits in the data row to generate a hit or miss indication for the data row.