mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal assembly comprising: a terminal board ; a passthrough with a first radially extending flange and a second radially extending flange ; and a terminal connection that extends through said passthrough; characterised by : an interrupted aperture in the terminal board and an interface defined at least partially around said interrupted aperture; and a terminal post mounted to said terminal board along a first axis (A), wherein said passthrough is defined along a second axis (B) offset from said first axis, wherein said passthrough extends through said interrupted aperture, wherein said first radially extending flange is engaged with said interface; and wherein the terminal connection is in electrical contact with said terminal post. a terminal board ; a passthrough with a first radially extending flange and a second radially extending flange ; and a terminal connection that extends through said passthrough; characterised by : an interrupted aperture in the terminal board and an interface defined at least partially around said interrupted aperture; and a terminal post mounted to said terminal board along a first axis (A), wherein said passthrough is defined along a second axis (B) offset from said first axis, wherein said passthrough extends through said interrupted aperture, wherein said first radially extending flange is engaged with said interface; and wherein the terminal connection is in electrical contact with said terminal post. an interrupted aperture in the terminal board and an interface defined at least partially around said interrupted aperture; and a terminal post mounted to said terminal board along a first axis (A), wherein said passthrough is defined along a second axis (B) offset from said first axis, wherein said passthrough extends through said interrupted aperture, wherein said first radially extending flange is engaged with said interface; and wherein the terminal connection is in electrical contact with said terminal post.
A computer-implemented method for generating a data storage server distribution pattern, the method comprising: determining , with at least one processor, a set of servers (S1 - SN); determining , with at least one processor, raw data to be stored; transforming , with at least one processor, the raw data according to an error-correcting code scheme to produce distributable data; determining , with at least one processor, a server reliability of each server in the set of servers; generating , with at least one processor, the data storage server distribution pattern based on maximizing a system reliability relative to maximizing a system entropy, wherein the system reliability is determined at least partly by a minimum reliability yielded from calculating reliabilities while permuting error vectors over various partitions of the distributable data across the set of servers (S1 - SN), and wherein the system entropy is determined at least partly by a cumulated information entropy of each server of the set of servers using a probability mass function based on a ratio of the number of bits of the distributable data to be stored on a given server relative to the total number of bits in the distributable data; and distributing , with at least one processor, the distributable data to be stored across at least two servers of the set of servers (S1 - SN) according to the data storage server distribution pattern. determining , with at least one processor, a set of servers (S1 - SN); determining , with at least one processor, raw data to be stored; transforming , with at least one processor, the raw data according to an error-correcting code scheme to produce distributable data; determining , with at least one processor, a server reliability of each server in the set of servers; generating , with at least one processor, the data storage server distribution pattern based on maximizing a system reliability relative to maximizing a system entropy, wherein the system reliability is determined at least partly by a minimum reliability yielded from calculating reliabilities while permuting error vectors over various partitions of the distributable data across the set of servers (S1 - SN), and wherein the system entropy is determined at least partly by a cumulated information entropy of each server of the set of servers using a probability mass function based on a ratio of the number of bits of the distributable data to be stored on a given server relative to the total number of bits in the distributable data; and distributing , with at least one processor, the distributable data to be stored across at least two servers of the set of servers (S1 - SN) according to the data storage server distribution pattern.
A transport device for transport of a fluid, the transport device (100, ...) with ... (a) a housing (110, ...), wherein the housing has a fluid inlet (111, 113, ...) and a fluid outlet (113, 111, ...); (b) an actuator (130, ...) comprising a magnetic shape-memory alloy, wherein the actuator (130, ...) is at least sectionwise arranged in the housing (110, ...); (c) a drive (150, ...) by which the actuator (130, ...) is deformable such that in the actuator (130, ...) at least one cavity (135, ...) movable by the drive (150, ...) is formed for the fluid to move the fluid in the cavity (135, ...) from the fluid inlet to the fluid outlet (113, 111, ...); and characterised in that the transport device includes (d) a seal element (170, ...), wherein the seal element (170, ...) is designed such and arranged between the actuator (130, ...) and the housing (110, ...) such that the cavity (135, ...) is sealed at an edge or end during the transport of the fluid from the fluid inlet (111, 113, ...) to the fluid outlet (113, 111, ...). (a) a housing (110, ...), wherein the housing has a fluid inlet (111, 113, ...) and a fluid outlet (113, 111, ...); (b) an actuator (130, ...) comprising a magnetic shape-memory alloy, wherein the actuator (130, ...) is at least sectionwise arranged in the housing (110, ...); (c) a drive (150, ...) by which the actuator (130, ...) is deformable such that in the actuator (130, ...) at least one cavity (135, ...) movable by the drive (150, ...) is formed for the fluid to move the fluid in the cavity (135, ...) from the fluid inlet to the fluid outlet (113, 111, ...); and characterised in that the transport device includes (d) a seal element (170, ...), wherein the seal element (170, ...) is designed such and arranged between the actuator (130, ...) and the housing (110, ...) such that the cavity (135, ...) is sealed at an edge or end during the transport of the fluid from the fluid inlet (111, 113, ...) to the fluid outlet (113, 111, ...).
A system, comprising: a low performance storage device storing a first data structure, the first data structure stored in the low performance storage device based on a first characteristic associated with the first data structure and a second characteristic associated with a first search query operator supported by the first data structure, wherein the first characteristic comprises a first access pattern of the first data structure and the second characteristic comprises a first occurrence frequency of the first search query operator ; and a high performance storage device storing a second data structure, the second data structure stored in the high performance storage device based on a third characteristic associated with the second data structure and a fourth characteristic associated with a second search query operator supported by the second data structure, wherein the third characteristic comprises a second access pattern of the second data structure and the fourth characteristic comprises a second occurrence frequency of the second search query operator . a low performance storage device storing a first data structure, the first data structure stored in the low performance storage device based on a first characteristic associated with the first data structure and a second characteristic associated with a first search query operator supported by the first data structure, wherein the first characteristic comprises a first access pattern of the first data structure and the second characteristic comprises a first occurrence frequency of the first search query operator ; and a high performance storage device storing a second data structure, the second data structure stored in the high performance storage device based on a third characteristic associated with the second data structure and a fourth characteristic associated with a second search query operator supported by the second data structure, wherein the third characteristic comprises a second access pattern of the second data structure and the fourth characteristic comprises a second occurrence frequency of the second search query operator .
Sanitary valve for insertion into a fitting , comprising a valve housing , a main valve which has a movable diaphragm , and a pilot valve by which the main valve is actuatable, wherein a position of the diaphragm is predefinable by a setting of a valve tappet of the pilot valve , wherein the sanitary valve has a clamping device by which the valve housing and an adjustment device part are firmly connectable or connected to each other, characterized in that the clamping device is composed of two parts , which each have a coupling element and a corresponding mating coupling element for receiving the coupling element of the other part , as a result of which the two parts are couplable to each other.
An isolated population of human brain endothelial cells (hBECs), wherein the hBECs are generated from induced pluripotent stem cells (iPSCs), wherein the iPSCs are generated from human amniotic fluid (AF) cells and wherein the hBECs are expressing claudin-5, occludin, ZO-1 and GLUT-1 and furthermore are expressing FZD7, WNT7A, WNT7B, APCDD1, STRA6 and ZO-3 and wherein the hBECs exhibit a trans-endothelial electrical resistance (TEER) between 400 and 700 Ω·cm 2 when grown in a monolayer.
A system, comprising: a charger comprising a base and a first fool-proof structure ; and a wearable device comprising a first locating structure arranged at a side edge of the wearable device ; wherein the base has a holding groove , the holding groove is adapted to a back shell of the wearable device , a Pogo pin connector is arranged in the holding groove ; wherein the first fool-proof structure comprises a first insert and a second insert , the first insert and the second insert are arranged at an edge of the holding groove , the first insert has a width less than that of the second insert , the first insert of the first fool-proof structure is used to match with the first locating structure at a side edge of the wearable device , and the first fool-proof structure is configured to make that the charger and the wearable device are connected only in one direction by inserting the first insert of the first fool-proof structure into the first locating structure of the wearable device , wherein the Pogo pin connector of the charger is connected to a Pogo pin connector of the wearable device for charging the wearable device only when the first insert of the first fool-proof structure matches with the first locating structure of the wearable device , characterized in that , the first locating structure is an interspace between two function buttons at the side edge of the wearable device . a charger comprising a base and a first fool-proof structure ; and a wearable device comprising a first locating structure arranged at a side edge of the wearable device ; wherein the base has a holding groove , the holding groove is adapted to a back shell of the wearable device , a Pogo pin connector is arranged in the holding groove ; wherein the first fool-proof structure comprises a first insert and a second insert , the first insert and the second insert are arranged at an edge of the holding groove , the first insert has a width less than that of the second insert , the first insert of the first fool-proof structure is used to match with the first locating structure at a side edge of the wearable device , and the first fool-proof structure is configured to make that the charger and the wearable device are connected only in one direction by inserting the first insert of the first fool-proof structure into the first locating structure of the wearable device , wherein the Pogo pin connector of the charger is connected to a Pogo pin connector of the wearable device for charging the wearable device only when the first insert of the first fool-proof structure matches with the first locating structure of the wearable device , characterized in that , the first locating structure is an interspace between two function buttons at the side edge of the wearable device .
Continuous automatic punching machine of the type suitable to perform operations of punching, die-cutting, cutting, engraving, holing or the like on leather workpieces (P) or similar sheet materials, comprising: - at least two side uprights , - a processing crosspiece mounted on said at least two side uprights in sliding mode, - said processing crosspiece being inferiorly integral with a tool assembly , - drive members of said processing crosspiece to cause its sliding with respect to said side uprights so as to make it perform a reciprocating movement which is a work movement of said tool assembly in a work direction (Z), - a workpiece support assembly positioned below said tool assembly and comprising an abutment plane , - a conveyor assembly comprising a conveyor belt arranged to pass in a unwound configuration above said abutment plane , - a processing section of said continuous automatic punching machine between said tool assembly and said abutment plane , with a leather workpiece (P) or similar sheet material to be processed that is supplied to said processing section lying on said conveyor belt in a feed direction (Y), said continuous automatic punching machine being characterized in that said tool assembly comprises at least a first and a second tool holder head each comprising an elongated tool-carrying bar which is elongated in a cross direction (X) and provided with a plurality of tools arranged to protrude from said tool-carrying bar , said first and a second tool holder head being arranged consecutively in a feed direction (Y) with the same spatial orientation, each of said first and second tool holder head being provided into said tool assembly for sliding in said cross direction (X), and by comprising cross direction drive means associated with each of said first and second tool holder heads adapted to drive the slide movement in said cross direction (X) of each of said tool holder head , independently from one another. - at least two side uprights , - a processing crosspiece mounted on said at least two side uprights in sliding mode, - said processing crosspiece being inferiorly integral with a tool assembly , - drive members of said processing crosspiece to cause its sliding with respect to said side uprights so as to make it perform a reciprocating movement which is a work movement of said tool assembly in a work direction (Z), - a workpiece support assembly positioned below said tool assembly and comprising an abutment plane , - a conveyor assembly comprising a conveyor belt arranged to pass in a unwound configuration above said abutment plane , - a processing section of said continuous automatic punching machine between said tool assembly and said abutment plane , with a leather workpiece (P) or similar sheet material to be processed that is supplied to said processing section lying on said conveyor belt in a feed direction (Y),
A ballistic helmet comprising a ballistic shell , characterised in that within the thickness of the ballistic shell there is provided one or more circuit layers forming a circuit , which circuit comprises a power bus and a data bus , and wherein one or more power connections and/or one or more data connections are provided on the inside and/or on an edge of the ballistic shell for providing power and data to/from one or more electrical devices through the circuit, wherein the ballistic helmet comprises integrated earpieces for the provision of an audio signal to the wearer of the helmet, and wherein at least one of the data connections and/or at least one of the power connections is provided adjacent each earpiece, thereby providing data and/or power connections for the earpieces to the circuit, wherein the power and data buses comprise conductive patterns extending across the ballistic shell.
A system to acquire blended seismic signals, comprising: a plurality of seismic sources of a survey region that activate based on a timing function that includes a ratio of a dither time to a shot interval that is less than or equal to 1/2, wherein the dither time indicates a delay between two shots from two different seismic sources of the plurality of seismic sources and the shot interval indicates a delay between two shots from an individual seismic source of the plurality of seismic sources; a plurality of nodal seismic sensors deployed at a plurality of positions in the survey region to record seismic signals generated in response to activation of the plurality of seismic sources; and one or more processors to deblend, based on the timing function that includes the ratio of the dither time to the shot interval that is less than or equal to 1/2, the seismic signals recorded by the plurality of nodal seismic sensors to generate data representing subsurface structures indicative of oil or gas. a plurality of seismic sources of a survey region that activate based on a timing function that includes a ratio of a dither time to a shot interval that is less than or equal to 1/2, wherein the dither time indicates a delay between two shots from two different seismic sources of the plurality of seismic sources and the shot interval indicates a delay between two shots from an individual seismic source of the plurality of seismic sources; a plurality of nodal seismic sensors deployed at a plurality of positions in the survey region to record seismic signals generated in response to activation of the plurality of seismic sources; and one or more processors to deblend, based on the timing function that includes the ratio of the dither time to the shot interval that is less than or equal to 1/2, the seismic signals recorded by the plurality of nodal seismic sensors to generate data representing subsurface structures indicative of oil or gas.
A hair care composition comprising: a) from 0.1 wt.% to 12 wt.% of a 1,2-diol having a carbon chain with a length of more than 8 carbons; b) from 0.1 wt.% to 10 wt.% of a solid particle, the solid particle is selected from the group consisting of silica silylate (hydrophobic silica), zinc carbonate and mixtures thereof, wherein the total amount of solid particle ranges from 1 wt.% to 10 wt.%, wherein the interfacial tension between the solid particle and sebum is from 5 to 18 dyn/cm as measured using the Contact Angle Method as disclosed herein; the sebum exhibits spreading coefficient on the solid, which is greater than 22 dyn/cm as measured using the Contact Angle Method as disclosed herein; and the work of adhesion of the sebum to the solid particle, which is greater than 75 dyn/cm as measured using the Contact Angle Method as disclosed herein. c) an aqueous carrier. a) from 0.1 wt.% to 12 wt.% of a 1,2-diol having a carbon chain with a length of more than 8 carbons; b) from 0.1 wt.% to 10 wt.% of a solid particle, the solid particle is selected from the group consisting of silica silylate (hydrophobic silica), zinc carbonate and mixtures thereof, wherein the total amount of solid particle ranges from 1 wt.% to 10 wt.%, wherein the interfacial tension between the solid particle and sebum is from 5 to 18 dyn/cm as measured using the Contact Angle Method as disclosed herein; the sebum exhibits spreading coefficient on the solid, which is greater than 22 dyn/cm as measured using the Contact Angle Method as disclosed herein; and the work of adhesion of the sebum to the solid particle, which is greater than 75 dyn/cm as measured using the Contact Angle Method as disclosed herein. the interfacial tension between the solid particle and sebum is from 5 to 18 dyn/cm as measured using the Contact Angle Method as disclosed herein; the sebum exhibits spreading coefficient on the solid, which is greater than 22 dyn/cm as measured using the Contact Angle Method as disclosed herein; and the work of adhesion of the sebum to the solid particle, which is greater than 75 dyn/cm as measured using the Contact Angle Method as disclosed herein. c) an aqueous carrier.
A method for extracting DNA and RNA from a biological sample comprising: (a) contacting the biological sample with a solid capture surface under conditions sufficient to retain cell-free DNA (cfDNA) and microvesicles from the biological sample on or in the capture surface, wherein the conditions comprise a chemical crowding agent to enhance binding of microvesicles and cfDNA to the solid capture surface, wherein the solid capture surface comprises at least one bead, wherein the chemical crowding agent is polyethylene glycol (PEG); (b) contacting the capture surface with a guanidine thiocyanate-based elution buffer while cell-free DNA and the microvesicles are on or in the capture surface, thereby releasing the DNA and RNA from the sample and producing a homogenate; and (c) extracting the DNA, the RNA, or both the DNA and RNA from the homogenate. (a) contacting the biological sample with a solid capture surface under conditions sufficient to retain cell-free DNA (cfDNA) and microvesicles from the biological sample on or in the capture surface, wherein the conditions comprise a chemical crowding agent to enhance binding of microvesicles and cfDNA to the solid capture surface, wherein the solid capture surface comprises at least one bead, wherein the chemical crowding agent is polyethylene glycol (PEG); (b) contacting the capture surface with a guanidine thiocyanate-based elution buffer while cell-free DNA and the microvesicles are on or in the capture surface, thereby releasing the DNA and RNA from the sample and producing a homogenate; and (c) extracting the DNA, the RNA, or both the DNA and RNA from the homogenate.
A device for securing a heat exchanger , to a face of a second panel, in particular such as a photovoltaic panel , including on the one hand a member provided with resilient return means movable between a passive position and an active position corresponding to the usage position of the securing device , and, on the other hand, means for assembling said member to the heat exchanger or to said second panel, said assembly means being able to place the resilient return means in their active position in which, in its usage position, said securing device exerts, on the heat exchanger placed against the face of the second panel , a force oriented toward said second panel , characterized in that said member is defined by a flat profiled segment having an upper face and a lower face , while said assembly means include a frame having an L -shaped section, arranged to border said face of said second panel and to form a rim capable of extending toward the inside of said face at a height h greater than the thickness e of the first panel , and in that the flat profiled segment has a length L chosen such that, in the usage position of said securing device , said flat profile extends over the assembly formed by the first panel and the second panel and its ends are inserted below the rim of said frame secured to said face , and bear against said rim .