mhurhangee/patent-ind-claim-en huggingface dataset:
A doorstop device for commercial vehicles, comprising: - an outer casing , adapted to be connected to a vehicle; and - a locking handle , comprising a hooking portion , adapted to engage a vehicle door and placed at a first end of a stem rotatably slidable within the outer casing between a first disengaging position, wherein said stem is retracted inside the outer casing and the hooking portion is in a first angular position, and a second engagement position, wherein said stem is extracted from the outer casing and the hooking portion is rotated relative to said first angular position, so as to be able to hook said vehicle door; characterized in that it comprises: - a substantially tubular inner shell , coaxial with respect to the stem and rotatably supported by the outer casing , with respect to which said inner shell is axially blocked, the stem being slidably housed in the inner shell , and being rotatable about its longitudinal axis x integrally with the latter; and - at least two elastic means , housed within the inner shell parallel to the longitudinal axis x of the stem , and having a first end acting on the inner body , and a second end acting on the stem , so that the sliding of the stem outside the inner shell causes the elastic means to be compressed. - an outer casing , adapted to be connected to a vehicle; and - a locking handle , comprising a hooking portion , adapted to engage a vehicle door and placed at a first end of a stem rotatably slidable within the outer casing between a first disengaging position, wherein said stem is retracted inside the outer casing and the hooking portion is in a first angular position, and a second engagement position, wherein said stem is extracted from the outer casing and the hooking portion is rotated relative to said first angular position, so as to be able to hook said vehicle door; - a substantially tubular inner shell , coaxial with respect to the stem and rotatably supported by the outer casing , with respect to which said inner shell is axially blocked, the stem being slidably housed in the inner shell , and being rotatable about its longitudinal axis x integrally with the latter; and - at least two elastic means , housed within the inner shell parallel to the longitudinal axis x of the stem , and having a first end acting on the inner body , and a second end acting on the stem , so that the sliding of the stem outside the inner shell causes the elastic means to be compressed.
A variable area fan nozzle (VAFN) , comprising: a body extending at least partially around an axis (A), the body including a radially outer wall and a radially inner wall relative to the axis (A), wherein the VAFN is a hollow structure and includes supports extending between the radially inner wall and the radially outer wall ; and characterised by at least one of the radially outer wall and the radially inner wall including a wall thickness distribution having local thick portions and local thin portions that are configured to control the flutter characteristic of the VAFN . a body extending at least partially around an axis (A), the body including a radially outer wall and a radially inner wall relative to the axis (A), wherein the VAFN is a hollow structure and includes supports extending between the radially inner wall and the radially outer wall ; and characterised by at least one of the radially outer wall and the radially inner wall including a wall thickness distribution having local thick portions and local thin portions that are configured to control the flutter characteristic of the VAFN .
Set of power connectors for a motor vehicle, comprising: - a male contact , - a female contact comprising a socket extending, between a front end and a rear end , along a central longitudinal axis (L), parallel to which the male contact can be introduced into the socket , the socket comprising an opening towards its front end , for the introduction of the male contact , the socket also comprising at least one flexible tab tending to return elastically towards the central longitudinal axis (L) when no male contact is inserted in the socket , and maintaining a force of contact on the male contact when the latter is inserted in the socket , this tab having a free end situated at the level of the opening , this free end of the tab being able to move away from or towards the central longitudinal axis (L), - a casing in which the female contact is housed, this casing comprising a passage situated in front of the opening of the socket and via which the male contact is introduced into the socket , wherein the female contact can be moved in the casing between a rearward position and a forward position, parallel to the longitudinal axis (L), the tab being closer to the central longitudinal axis (L) when the female contact is in the rearward position than when the female contact is in the forward position, and the tab being separated, from the central longitudinal axis (L), by the casing when the female contact is in the forward position, wherein the tab is intended to exert a force of contact on the male contact when the male contact is inserted in the socket , and wherein the female contact is driven towards the forward position when the male contact is withdrawn from the socket, and, in this movement, a chamfer positioned on the casing interacts with the tab to move the tab away from the central longitudinal axis (L), thereby lifting and separating the tab from the male contact , characterized in that the female contact is driven, towards the forward position, by friction between the male contact and the tab . - a male contact , - a female contact comprising a socket extending, between a front end and a rear end , along a central longitudinal axis (L), parallel to which the male contact can be introduced into the socket , the socket comprising an opening towards its front end , for the introduction of the male contact , the socket also comprising at least one flexible tab tending to return elastically towards the central longitudinal axis (L) when no male contact is inserted in the socket , and maintaining a force of contact on the male contact when the latter is inserted in the socket , this tab having a free end situated at the level of the opening , this free end of the tab being able to move away from or towards the central longitudinal axis (L), - a casing in which the female contact is housed, this casing comprising a passage situated in front of the opening of the socket and via which the male contact is introduced into the socket ,
A thrust reverser for a propulsion unit of an aircraft , this thrust reverser comprising a fixed structure and at least one door which is movable between: - a closed position in which it delimits, with the fixed structure , a flow conduit (D1), the flow conduit (D1) comprising an ejection outlet which is at least partially delimited by a rear end of the fixed structure , the door in the closed position being configured to be able to guide a fluid (E1), which is flowing in the conduit (D1), towards the ejection outlet thereof in order to generate a thrust, and - an open position in which the door releases a reversal opening so as to be able to discharge, from the flow conduit (D1), a portion (E3) of said fluid, via this reversal opening, and to redirect at least one portion (E4) of the fluid thus discharged towards a front end of the fixed structure in order to generate a counter-thrust, this thrust reverser being characterised in that it comprises at least one deflector (60A-60D, 60, 70, 80) which is connected both to the door and to the fixed structure so as to be folded when the door is closed and to be unfolded when the door is open, the unfolded deflector (60A-60D, 60, 70, 80) obstructing a lateral opening defined between the fixed structure and a lateral end of the open door . - a closed position in which it delimits, with the fixed structure , a flow conduit (D1), the flow conduit (D1) comprising an ejection outlet which is at least partially delimited by a rear end of the fixed structure , the door in the closed position being configured to be able to guide a fluid (E1), which is flowing in the conduit (D1), towards the ejection outlet thereof in order to generate a thrust, and - an open position in which the door releases a reversal opening so as to be able to discharge, from the flow conduit (D1), a portion (E3) of said fluid, via this reversal opening, and to redirect at least one portion (E4) of the fluid thus discharged towards a front end of the fixed structure in order to generate a counter-thrust,
A method for determining the diagnosis of obstructive coronary artery disease in a subject, comprising the steps: (i) determining the level of at least two or at least three biomarkers in a biological sample obtained from the subject, wherein the at least two or at least three biomarkers are selected from the group consisting of-adiponectin, apolipoprotein C-1, decorin, interleukin-8, kidney injury molecule-1 (KIM-1), matrix metalloproteinase 9, midkine, myoglobin, pulmonary surfactant associated protein D, stem cell factor, and troponin; (ii) determining the status of at least one clinical variable for the subject, wherein the clinical variable is selected from the group consisting of-age, sex, history of coronary artery bypass graft surgery (CABG), history of diabetes Type 2, history of hemodialysis, history of myocardial infarct (MI), history of coronary artery disease (CAD), and history of percutaneous intervention, wherein optionally history of percutaneous intervention comprises history of coronary stent or history of coronary angioplasty; (iii) calculating a diagnostic score based on an algorithm transforming the levels of the biomarkers determined in step (i) and, the status of the clinical variable(s) determined in step (ii); (iv) classifying the diagnostic score as a positive or negative result; and (v) determining a therapeutic or diagnostic intervention regimen based on the positive or negative result. (i) determining the level of at least two or at least three biomarkers in a biological sample obtained from the subject, wherein the at least two or at least three biomarkers are selected from the group consisting of-adiponectin, apolipoprotein C-1, decorin, interleukin-8, kidney injury molecule-1 (KIM-1), matrix metalloproteinase 9, midkine, myoglobin, pulmonary surfactant associated protein D, stem cell factor, and troponin; (ii) determining the status of at least one clinical variable for the subject, wherein the clinical variable is selected from the group consisting of-age, sex, history of coronary artery bypass graft surgery (CABG), history of diabetes Type 2, history of hemodialysis, history of myocardial infarct (MI), history of coronary artery disease (CAD), and history of percutaneous intervention, wherein optionally history of percutaneous intervention comprises history of coronary stent or history of coronary angioplasty; (iii) calculating a diagnostic score based on an algorithm transforming the levels of the biomarkers determined in step (i) and, the status of the clinical variable(s) determined in step (ii); (iv) classifying the diagnostic score as a positive or negative result; and (v) determining a therapeutic or diagnostic intervention regimen based on the positive or negative result.
Support part for supporting an LCD display module of an electronic device, comprising at least one receiving element for receiving a pressing device for pressing on a dummy key , said part being characterized in that it comprises at least one attaching element to secure said part to a PCB of the electronic device such that the pressing device is compressed between said support part and said PCB.
Press-fit sleeve for sealing and cooling a component projecting through a fire deck opening in the cylinder head of an internal combustion engine, comprising: a connecting point at a first end of the press-fit sleeve , said connecting point being designed for press fitting into an indentation at an end of the fire deck opening that faces away from a combustion chamber , wherein the connecting point comprises a radially inwardly curved collar with a contact surface ; a radially inwardly protruding step at a second end of the press-fit sleeve lying opposite the first end ; and a lateral surface of the press-fit sleeve , said lateral surface being closed fluid-tightly between the first end and the second end and being or being able to be brought into contact with a water jacket surrounding the press-fit sleeve . a connecting point at a first end of the press-fit sleeve , said connecting point being designed for press fitting into an indentation at an end of the fire deck opening that faces away from a combustion chamber , wherein the connecting point comprises a radially inwardly curved collar with a contact surface ; a radially inwardly protruding step at a second end of the press-fit sleeve lying opposite the first end ; and a lateral surface of the press-fit sleeve , said lateral surface being closed fluid-tightly between the first end and the second end and being or being able to be brought into contact with a water jacket surrounding the press-fit sleeve .
Subscriber station (10; 20; 30) for a serial communication network , having a communication control device (11; 21; 31) for creating a message (4; 5; 50) which is to be serially transmitted to at least one further subscriber station (20; 30; 10) of the communication network , wherein the communication control device (11; 21; 31) is configured to subdivide the data of the message (4; 5; 50) to be created into at least one data section (4521 to 452n) and to insert, into each data section (4521 to 452n), bits (E) of an error correction code (46; 460) which makes it possible to correct at least one error in the message (4; 5; 50), characterized in that the communication control device (11; 21; 31) is configured to insert the bits (E) of the error correction code as synchronization edges in such a manner that the spacing between the synchronization edges , which are provided for the purpose of synchronizing the at least one further subscriber station (20; 30; 10) as the receiver of the message (4; 5; 50) with the subscriber station (10; 20; 30) as the transmitter of the message (4; 5; 50), does not exceed a predetermined upper limit, and wherein the predetermined upper limit is equal to a predetermined number of bits which have the same value and occur in succession between bits (E) of the error correction code. a communication control device (11; 21; 31) for creating a message (4; 5; 50) which is to be serially transmitted to at least one further subscriber station (20; 30; 10) of the communication network , wherein the communication control device (11; 21; 31) is configured to subdivide the data of the message (4; 5; 50) to be created into at least one data section (4521 to 452n) and to insert, into each data section (4521 to 452n), bits (E) of an error correction code (46; 460) which makes it possible to correct at least one error in the message (4; 5; 50), characterized in that the communication control device (11; 21; 31) is configured to insert the bits (E) of the error correction code as synchronization edges in such a manner that the spacing between the synchronization edges , which are provided for the purpose of synchronizing the at least one further subscriber station (20; 30; 10) as the receiver of the message (4; 5; 50) with the subscriber station (10; 20; 30) as the transmitter of the message (4; 5; 50), does not exceed a predetermined upper limit, and wherein the predetermined upper limit is equal to a predetermined number of bits which have the same value and occur in succession between bits (E) of the error correction code.
A method of manufacturing a reverse conducting insulated gate bipolar transistor, comprising the following steps in sequence: preparing (S111) an N-type substrate ; growing (S112) a gate oxide layer at a front side of the N-type substrate ; depositing (S113) a polysilicon gate on the gate oxide layer ; forming (S114) a P well on the N-type substrate by photoetching, etching and ion-implanting processes; forming (S115) an N+ region and a front side P+ region in the P well by photoetching and ion-implanting processes; depositing (S116) a dielectric layer at the front side of the N-type substrate ; depositing (S117) a protecting layer on the dielectric layer ; grinding (S118) the N-type substrate by a back side grinding process; forming (S121) a back side P+ region by implanting a P-type impurity to a back side of the N-type substrate ; forming (S122) a trench at the back side of the N-type substrate by photoetching and etching processes; filling (S123) the trench by depositing polysilicon at the back side of the N-type substrate , and etching the polysilicon positioned at an area outside of the trench ; removing (S124) the protecting layer at the front side of the N-type substrate ; selectively etching (S125) the dielectric layer to form a contact hole for shorting the N+ region and the front side P+ region , and forming (S125) a front side metal layer ; depositing (S126) a passivation layer at the front side of the N-type substrate ; and performing (S127) a back side metallization process at the back side of the N-type substrate , and forming a back side metal layer . preparing (S111) an N-type substrate ; growing (S112) a gate oxide layer at a front side of the N-type substrate ; depositing (S113) a polysilicon gate on the gate oxide layer ; forming (S114) a P well on the N-type substrate by photoetching, etching and ion-implanting processes; forming (S115) an N+ region and a front side P+ region in the P well by photoetching and ion-implanting processes; depositing (S116) a dielectric layer at the front side of the N-type substrate ; depositing (S117) a protecting layer on the dielectric layer ; grinding (S118) the N-type substrate by a back side grinding process; forming (S121) a back side P+ region by implanting a P-type impurity to a back side of the N-type substrate ; forming (S122) a trench at the back side of the N-type substrate by photoetching and etching processes; filling (S123) the trench by depositing polysilicon at the back side of the N-type substrate , and etching the polysilicon positioned at an area outside of the trench ; removing (S124) the protecting layer at the front side of the N-type substrate ; selectively etching (S125) the dielectric layer to form a contact hole for shorting the N+ region and the front side P+ region , and forming (S125) a front side metal layer ; depositing (S126) a passivation layer at the front side of the N-type substrate ; and performing (S127) a back side metallization process at the back side of the N-type substrate , and forming a back side metal layer .
A composition comprising a mixture of palmitoyl-ethanolamide (PEA) and Rutin in the co-micronized form.
A method for detecting a duplicate sequencing read from a population of sample sequencing reads comprising: shearing genomic DNA to produce a plurality of nucleic acid fragments from one or more samples; ligating an adaptor to a 5' end of each nucleic acid fragment of the plurality of nucleic acid fragments, wherein the adaptor comprises_from 5' to 3': (i) an indexing primer binding site; (ii) an indexing site; (iii) an identifier site consisting of between 1 and 8 random nucleotides; and (iv) a forward sequencing read primer binding site; hybridizing targeting oligos to the genomic DNA in the adapter-nucleic acid fragment ligated products; extending the targeting oligos; amplifying extension products obtained from targeting oligos that have extended through an adapter; generating a population of sequencing reads from amplified adapter-nucleic acid fragment ligated products; identifying a duplicate sequencing read as the sequencing read comprising the same identifier site and nucleic acid fragment as another sequencing read in the population of sequencing reads; and removing the duplicate sequencing read from the population of sequencing reads, wherein the indexing site is an index for multiple polynucleotides; and wherein the sequence of the identifier site is variable in sequence content in a plurality of adaptors. shearing genomic DNA to produce a plurality of nucleic acid fragments from one or more samples; ligating an adaptor to a 5' end of each nucleic acid fragment of the plurality of nucleic acid fragments, wherein the adaptor comprises_from 5' to 3': (i) an indexing primer binding site; (ii) an indexing site; (iii) an identifier site consisting of between 1 and 8 random nucleotides; and (iv) a forward sequencing read primer binding site; (i) an indexing primer binding site; (ii) an indexing site; (iii) an identifier site consisting of between 1 and 8 random nucleotides; and (iv) a forward sequencing read primer binding site; hybridizing targeting oligos to the genomic DNA in the adapter-nucleic acid fragment ligated products; extending the targeting oligos; amplifying extension products obtained from targeting oligos that have extended through an adapter; generating a population of sequencing reads from amplified adapter-nucleic acid fragment ligated products; identifying a duplicate sequencing read as the sequencing read comprising the same identifier site and nucleic acid fragment as another sequencing read in the population of sequencing reads; and removing the duplicate sequencing read from the population of sequencing reads, wherein the indexing site is an index for multiple polynucleotides; and wherein the sequence of the identifier site is variable in sequence content in a plurality of adaptors.