mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining an intended orientation and/or position of a user's head when the orientation of the user's head is being changed involuntarily by vibratory or buffeting forces transmitted through the user's body from a point of contact of the user's body with said forces, the method comprising: determining, at a sensor , a sensed force variable at the point of contact due to said forces; predicting an involuntary component of orientation of the user's head at a predetermined time due to the sensed force variable, the predicting using an adaptive filter comprising a first input, a first output, a filter coefficient input, and at least one filter coefficient, characterised in that the first output is equal to the involuntary component of orientation and the first input comprises the sensed force variable; determining, using at least one tracking system, an orientation variable of the user's head at the predetermined time; subtracting a first value from a second value , the first value equal to the first output and the second value equal to the orientation variable, to provide a third value equal to the filter coefficient input; updating the at least one filter coefficient based on the filter coefficient input; and determining the intended orientation and/or position of a user's head based on the third value; wherein the point of contact is substantially fixed in location relative to the user. determining, at a sensor , a sensed force variable at the point of contact due to said forces; predicting an involuntary component of orientation of the user's head at a predetermined time due to the sensed force variable, the predicting using an adaptive filter comprising a first input, a first output, a filter coefficient input, and at least one filter coefficient, characterised in that the first output is equal to the involuntary component of orientation and the first input comprises the sensed force variable; determining, using at least one tracking system, an orientation variable of the user's head at the predetermined time; subtracting a first value from a second value , the first value equal to the first output and the second value equal to the orientation variable, to provide a third value equal to the filter coefficient input; updating the at least one filter coefficient based on the filter coefficient input; and determining the intended orientation and/or position of a user's head based on the third value; wherein the point of contact is substantially fixed in location relative to the user.
A fusion protein comprising: (a) an antigen-presenting cell (APC)-binding domain or a CD91 receptor-binding domain, located at the N-terminus of the fusion protein, wherein the APC-binding domain or CD91 receptor-binding domain is selected from the group consisting of receptor-associated protein-1 (RAP1) domain III, alpha-2-macroglobulin receptor-associated protein (A2M), HIV-Tat, heat shock 70kDa protein, and Pseudomonas exotoxin A binding domain la; (b) a protein transduction domain, located at the C-terminus of the APC-binding domain or the CD91 receptor-binding domain, the protein transduction domain is a fusion polypeptide comprising a T cell sensitizing signal-transducing peptide, a linker, and a translocation peptide, wherein: the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and (c) an antigen of a pathogen, located at the C-terminus of the protein transduction domain; wherein: the T cell-sensitizing signal-transducing peptide has 28-53 amino acid residues in length and comprises the amino acid sequence of SEQ ID NO: 31, in which Xaa 8 is I or L; Xaa 10 is V, F or A, Xaa 11 is M or L, Xaa 17 is L or I. (a) an antigen-presenting cell (APC)-binding domain or a CD91 receptor-binding domain, located at the N-terminus of the fusion protein, wherein the APC-binding domain or CD91 receptor-binding domain is selected from the group consisting of receptor-associated protein-1 (RAP1) domain III, alpha-2-macroglobulin receptor-associated protein (A2M), HIV-Tat, heat shock 70kDa protein, and Pseudomonas exotoxin A binding domain la; (b) a protein transduction domain, located at the C-terminus of the APC-binding domain or the CD91 receptor-binding domain, the protein transduction domain is a fusion polypeptide comprising a T cell sensitizing signal-transducing peptide, a linker, and a translocation peptide, wherein: the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and the T cell sensitizing signal-transducing peptide is located at the N-terminus of the fusion polypeptide; the linker comprises SEQ ID NO: 15, linking the T cell sensitizing signal-transducing peptide and the translocation peptide; and the translocation peptide has 34-112 amino acid residues in length and comprises an amino acid sequence consisting of SEQ ID NO: 3, 20 or 4; and (c) an antigen of a pathogen, located at the C-terminus of the protein transduction domain;
A dynamic random access memory (DRAM) device, comprising: a memory array including multiple memory locations; and I/O (input/output) circuitry including an interface to a command bus including a chip select (CS) signal line and excluding a clock enable (CKE) signal line; wherein a logic transition of the CS signal line is to trigger a low power mode, with the CS signal line driven high in connection with a command encoding of the command bus at a clock edge. a memory array including multiple memory locations; and I/O (input/output) circuitry including an interface to a command bus including a chip select (CS) signal line and excluding a clock enable (CKE) signal line; wherein a logic transition of the CS signal line is to trigger a low power mode, with the CS signal line driven high in connection with a command encoding of the command bus at a clock edge.
A battery safety evaluation apparatus comprising a computer apparatus configured to perform a process of: a battery characteristic estimator configured to estimate an estimation value of an inner state parameter of a first battery which is a secondary battery to be evaluated on the basis of data on voltage and current of the first battery measured in charging or discharging the first battery; a heat estimator configured to estimate a heat of the first battery upon change of an external temperature on the basis of first reference data which is reference data at least indicating relationship between a heat of a secondary battery and the external temperature and is set to correspond to the first battery on the basis of the estimation value; and a safety index calculator configured to calculate a safety index regarding a temperature of the first battery upon change of the external temperature on the basis of the heat of the first battery; to calculate the temperature of the first battery at the external temperature on the basis of the heat of the first battery estimated by the heat estimator, a specific heat of the first battery, a heat transfer coefficient between the first battery and an outside of the first battery, and the external temperature; and to calculate the safety index on the basis of the calculated temperature of the first battery. a battery characteristic estimator configured to estimate an estimation value of an inner state parameter of a first battery which is a secondary battery to be evaluated on the basis of data on voltage and current of the first battery measured in charging or discharging the first battery; a heat estimator configured to estimate a heat of the first battery upon change of an external temperature on the basis of first reference data which is reference data at least indicating relationship between a heat of a secondary battery and the external temperature and is set to correspond to the first battery on the basis of the estimation value; and a safety index calculator configured to calculate a safety index regarding a temperature of the first battery upon change of the external temperature on the basis of the heat of the first battery; to calculate the temperature of the first battery at the external temperature on the basis of the heat of the first battery estimated by the heat estimator, a specific heat of the first battery, a heat transfer coefficient between the first battery and an outside of the first battery, and the external temperature; and to calculate the safety index on the basis of the calculated temperature of the first battery.
A flight vehicle comprising: a fuselage ; and an engine mechanically coupled to the fuselage; wherein the engine includes: an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein the air inlet compresses incoming airflow through a flow channel defined by the air inlet, down to a throat of minimum cross-section area; wherein the air inlet includes a fin protruding into the flow channel, with at least part of the fin upstream of the throat; wherein the fin has a spine where the fin has its maximum protrusion into the flow channel ; wherein the fin protrudes out of an inner wall of the air inlet , smoothly, without any abrupt changes or discontinuities in the slope of the fin, optionally except at the spine along the length of the fin; and wherein the fin has curved walls on either side of the spine. a fuselage ; and an engine mechanically coupled to the fuselage; wherein the engine includes: an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein the air inlet compresses incoming airflow through a flow channel defined by the air inlet, down to a throat of minimum cross-section area; wherein the air inlet includes a fin protruding into the flow channel, with at least part of the fin upstream of the throat; wherein the fin has a spine where the fin has its maximum protrusion into the flow channel ; wherein the fin protrudes out of an inner wall of the air inlet , smoothly, without any abrupt changes or discontinuities in the slope of the fin, optionally except at the spine along the length of the fin; and wherein the fin has curved walls on either side of the spine.
A silicon-on-insulator (SOI) complementary metal oxide semiconductor (CMOS) wafer for use in manufacturing an uncooled microbolometer, the SOI-CMOS wafer comprising: a substrate layer an insulation layer formed on the substrate layer , the insulation layer having a pixel region and a wall region surrounding the pixel region without contacting the pixel region thus defining a space between the pixel region and the wall region ; a pixel structure formed on the pixel region of the insulation layer ; a wall structure formed adjacent to the pixel structure and on the wall region of the insulation layer ; a support arm structure formed on the insulation layer in the space between the pixel region and the wall region and providing mechanical and electrical connections between the pixel structure and adjacent wall structures; and the pixel structure including a diode group formed on the insulation layer , an umbrella layer made from a heat absorbing material, covering the diode group , and extending laterally outward to cover the support arm structure, the umbrella layer configured to receive an infrared ray and convert the infrared ray into heat, and characterized by the wall structure including a wall mask for protecting the wall structure during a dry etch process; and a pixel mask located above the umbrella layer and configured to protect the umbrella layer during the dry etching process. a substrate layer an insulation layer formed on the substrate layer , the insulation layer having a pixel region and a wall region surrounding the pixel region without contacting the pixel region thus defining a space between the pixel region and the wall region ; a pixel structure formed on the pixel region of the insulation layer ; a wall structure formed adjacent to the pixel structure and on the wall region of the insulation layer ; a support arm structure formed on the insulation layer in the space between the pixel region and the wall region and providing mechanical and electrical connections between the pixel structure and adjacent wall structures; and the pixel structure including a diode group formed on the insulation layer , an umbrella layer made from a heat absorbing material, covering the diode group , and extending laterally outward to cover the support arm structure, the umbrella layer configured to receive an infrared ray and convert the infrared ray into heat, and characterized by the wall structure including a wall mask for protecting the wall structure during a dry etch process; and a pixel mask located above the umbrella layer and configured to protect the umbrella layer during the dry etching process.
Bucket with a base and with a circumferential lateral wall which, in the region of an opening of the bucket , has a circumferential edge with an engagement region for cooperating with a lid , wherein the bucket has at least one dimensionally stable, annular attachment which is connected in a detachable manner to the circumferential edge , wherein an inner sleeve with a sleeve base and a circumferential sleeve wall is attached to the attachment , wherein the sleeve base and/or the circumferential sleeve wall are formed entirely or partially from a film, characterized in that the attachment has a flange portion which covers the engagement region , and in that the attachment has an upper clamping profile for cooperating with a clamping profile which is formed on an inner side of an edge of the lid or on an inner side of a further attachment . the bucket has at least one dimensionally stable, annular attachment which is connected in a detachable manner to the circumferential edge , wherein an inner sleeve with a sleeve base and a circumferential sleeve wall is attached to the attachment , wherein the sleeve base and/or the circumferential sleeve wall are formed entirely or partially from a film, characterized in that the attachment has a flange portion which covers the engagement region , and in that the attachment has an upper clamping profile for cooperating with a clamping profile which is formed on an inner side of an edge of the lid or on an inner side of a further attachment .
Apparatus (200; 400; 500) for compensating phase fluctuations, comprising: a digital phase locked loop (210; 410) comprising a digital phase detector having a phase error output (214; 414) for a phase error (216; 416) between a reference clock signal (218; 418) and an output clock signal (212; 412) generated by the digital phase locked loop; filter circuitry (230; 430) comprising a digital non-causal filter coupled to the phase error output (214; 414) and configured to filter the phase error (216; 416) to separate the phase error from noise, the digital non-causal filter comprising filter coefficients based on phase error samples and/or phase error statistics; a phase rotator (220; 420; 520) coupled to the digital non-causal filter (230; 430) and configured to rotate a phase of a modulated data signal using the filtered phase error (216'; 416'); and a signal combiner (453; 463; 552) configured to combine the modulated data signal with the output clock signal (212; 412) after rotating the phase of the modulated data signal if the modulated data signal is a transmit signal, or combine the modulated data signal with the output clock signal (212; 412) before rotating the phase of the modulated data signal if the modulated data signal is a receive signal. a digital phase locked loop (210; 410) comprising a digital phase detector having a phase error output (214; 414) for a phase error (216; 416) between a reference clock signal (218; 418) and an output clock signal (212; 412) generated by the digital phase locked loop; filter circuitry (230; 430) comprising a digital non-causal filter coupled to the phase error output (214; 414) and configured to filter the phase error (216; 416) to separate the phase error from noise, the digital non-causal filter comprising filter coefficients based on phase error samples and/or phase error statistics; a phase rotator (220; 420; 520) coupled to the digital non-causal filter (230; 430) and configured to rotate a phase of a modulated data signal using the filtered phase error (216'; 416'); and a signal combiner (453; 463; 552) configured to combine the modulated data signal with the output clock signal (212; 412) after rotating the phase of the modulated data signal if the modulated data signal is a transmit signal, or combine the modulated data signal with the output clock signal (212; 412) before rotating the phase of the modulated data signal if the modulated data signal is a receive signal.
An implant , the implant comprising: a body exhibiting a longitudinal axis ; a pair of proximal arms extending from said body, each of said pair of proximal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of proximal arms; a pair of distal arms extending from said body, each of said pair of distal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said respective directions of extension of said pair of distal arms generally opposing said respective directions of extension of said pair of proximal arms, said body positioned between said pair of distal arms; and a pair of intermediate arm assemblies extending from said body, each of said pair of intermediate arm assemblies extending in a respective direction rotated about said longitudinal axis from said respective extension directions of said pair of proximal arms and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of intermediate arm assemblies. a body exhibiting a longitudinal axis ; a pair of proximal arms extending from said body, each of said pair of proximal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of proximal arms; a pair of distal arms extending from said body, each of said pair of distal arms extending in a respective direction and exhibiting a respective acute angle with said longitudinal axis, said respective directions of extension of said pair of distal arms generally opposing said respective directions of extension of said pair of proximal arms, said body positioned between said pair of distal arms; and a pair of intermediate arm assemblies extending from said body, each of said pair of intermediate arm assemblies extending in a respective direction rotated about said longitudinal axis from said respective extension directions of said pair of proximal arms and exhibiting a respective acute angle with said longitudinal axis, said body positioned between said pair of intermediate arm assemblies.
A method of wireless communication by a user equipment (UE), comprising: detecting a layer one, L1, event associated with at least one of a primary cell, PCell, serving the UE or a primary secondary cell, PSCell, serving the UE; triggering , in response to detecting the L1 event, a beam recovery procedure for at least one of the PCell or the PSCell, wherein triggering the beam recovery procedure includes transmitting a reconfiguration request via an additional secondary cell, SCell, to reconfigure at least one beam for at least one of the PCell or the PSCell; receiving request information via the additional SCell requesting identification information of the at least one beam to reconfigure; transmitting , in response to receiving the request information, the requested identification information of the at least one beam to reconfigure; receiving , in response to transmitting the requested identification information, reconfiguration information for the at least one beam; and communicating , based on the reconfiguration information, with at least one of the PCell or the PSCell using the at least one beam. detecting a layer one, L1, event associated with at least one of a primary cell, PCell, serving the UE or a primary secondary cell, PSCell, serving the UE; triggering , in response to detecting the L1 event, a beam recovery procedure for at least one of the PCell or the PSCell, wherein triggering the beam recovery procedure includes transmitting a reconfiguration request via an additional secondary cell, SCell, to reconfigure at least one beam for at least one of the PCell or the PSCell; receiving request information via the additional SCell requesting identification information of the at least one beam to reconfigure; transmitting , in response to receiving the request information, the requested identification information of the at least one beam to reconfigure; receiving , in response to transmitting the requested identification information, reconfiguration information for the at least one beam; and communicating , based on the reconfiguration information, with at least one of the PCell or the PSCell using the at least one beam.