mhurhangee/ep-ind-claims huggingface dataset:
A surgical system comprising: a longitudinal element including a distractor rack, wherein the distractor rack extends between a first end and a second end and defines a longitudinal axis; a plurality of alternate engaging surfaces including a first leg (72, 102) and a second leg; a first tubular arm interchangeably connectable with the first leg (72, 102); a second tubular arm interchangeably connectable with the second leg, wherein the second end of the distractor rack is configured for connection with the second tubular arm; wherein the distractor rack includes a ratchet configuration including an outer surface that defines a plurality of teeth engageable with a portion of the first tubular arm such that the first tubular arm is translatable relative to the longitudinal axis in a bi-directional and/or two-way ratchet configuration; wherein the surgical system further comprises a mount including a surface that defines an opening configured for disposal of the outer surface of the distractor rack for mounting the first tubular arm with the distractor rack; the first tubular arm and the second tubular arm being relatively movable to distract and/or compress vertebral tissue; wherein the first end of the distractor rack includes a ball that is spring loaded; and wherein the mount is configured to contact the ball when the mount is translated in the direction of the first end and prevents the mount from disengaging from the distractor rack during translation. a longitudinal element including a distractor rack, wherein the distractor rack extends between a first end and a second end and defines a longitudinal axis; a plurality of alternate engaging surfaces including a first leg (72, 102) and a second leg; a first tubular arm interchangeably connectable with the first leg (72, 102); a second tubular arm interchangeably connectable with the second leg, wherein the second end of the distractor rack is configured for connection with the second tubular arm; wherein the distractor rack includes a ratchet configuration including an outer surface that defines a plurality of teeth engageable with a portion of the first tubular arm such that the first tubular arm is translatable relative to the longitudinal axis in a bi-directional and/or two-way ratchet configuration; wherein the surgical system further comprises a mount including a surface that defines an opening configured for disposal of the outer surface of the distractor rack for mounting the first tubular arm with the distractor rack; the first tubular arm and the second tubular arm being relatively movable to distract and/or compress vertebral tissue; wherein the first end of the distractor rack includes a ball that is spring loaded; and wherein the mount is configured to contact the ball when the mount is translated in the direction of the first end and prevents the mount from disengaging from the distractor rack during translation.
A mobile terminal, comprising: a terminal body; a main printed circuit board, hereinafter called main PCB and a sub printed circuit board, hereinafter called sub PCB having electrical components respectively, the main PCB and the sub PCB being embedded in the terminal body; a support member fixed to the main PCB and having a camera and the sub-PCB mounted thereto, characterized in that the support member includes: a main body having a portion for mounting the camera therein, the main body being fixed to the main PCB; and a sub-PCB support portion for supporting the sub-PCB, the sub-PCB support portion being formed along an outer perimeter of the main body. a terminal body; a main printed circuit board, hereinafter called main PCB and a sub printed circuit board, hereinafter called sub PCB having electrical components respectively, the main PCB and the sub PCB being embedded in the terminal body; a support member fixed to the main PCB and having a camera and the sub-PCB mounted thereto, characterized in that the support member includes: a main body having a portion for mounting the camera therein, the main body being fixed to the main PCB; and a sub-PCB support portion for supporting the sub-PCB, the sub-PCB support portion being formed along an outer perimeter of the main body. a main body having a portion for mounting the camera therein, the main body being fixed to the main PCB; and a sub-PCB support portion for supporting the sub-PCB, the sub-PCB support portion being formed along an outer perimeter of the main body.
A method for enabling higher order modulation, HOM, mode support for at least one HOM capable wireless device, the method comprising: determining a legacy mode power offset value for at least one of the at least one HOM mode capable wireless device in legacy modulation mode; calculating a power headroom value for sending downlink data to the at least one HOM mode capable wireless device; characterized by: when the power headroom value exceeds a threshold value: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the identified legacy mode power offset value; when the power headroom value does not exceed the threshold value: determining when a HOM mode power offset value is available, the HOM mode power offset value corresponding to a lower energy per resource element, EPRE, than an EPRE corresponding to the legacy mode power offset value; and when the HOM mode power offset value is available: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the HOM mode power offset value. determining a legacy mode power offset value for at least one of the at least one HOM mode capable wireless device in legacy modulation mode; calculating a power headroom value for sending downlink data to the at least one HOM mode capable wireless device; characterized by: when the power headroom value exceeds a threshold value: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the identified legacy mode power offset value; when the power headroom value does not exceed the threshold value: determining when a HOM mode power offset value is available, the HOM mode power offset value corresponding to a lower energy per resource element, EPRE, than an EPRE corresponding to the legacy mode power offset value; and when the HOM mode power offset value is available: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the HOM mode power offset value. when the power headroom value exceeds a threshold value: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the identified legacy mode power offset value; when the power headroom value does not exceed the threshold value: determining when a HOM mode power offset value is available, the HOM mode power offset value corresponding to a lower energy per resource element, EPRE, than an EPRE corresponding to the legacy mode power offset value; and when the HOM mode power offset value is available: enabling the HOM mode support for at least one of the at least one HOM mode capable wireless device using the HOM mode power offset value.
A heating device for heating underground soil comprising: a conductive casing having a first end, a second end, and a wall defining an inner bore extending between the first and second ends, and a temperature; a conductor (80, 180, 280), at least a part of the conductor (80, 180, 280) being positioned in the inner bore, the conductor (80, 180, 280) being electrically insulated from the casing; and a power unit connected to the conductor (80, 180, 280) through the first end, the power unit configured to convert power received from a power source into at least one driving current and supply the at least one driving current to the conductor (80, 180, 280), wherein the conductor (80, 180, 280) is configured to generate at least one magnetic field when the at least one driving current is supplied thereto to create at least one corresponding induced current in the casing, and wherein the at least one driving current is of a frequency sufficient for the at least one induced current to encounter resistance in the casing to increase the temperature; characterised in that, the power unit comprises one or more three-phase inverters, and the at least one driving current is a three phase current; and, wherein the conductor (80, 180, 280) comprises one or more sets of three work coils (182a, 182b, 182c, 282a, 282b, 282c). a conductive casing having a first end, a second end, and a wall defining an inner bore extending between the first and second ends, and a temperature; a conductor (80, 180, 280), at least a part of the conductor (80, 180, 280) being positioned in the inner bore, the conductor (80, 180, 280) being electrically insulated from the casing; and a power unit connected to the conductor (80, 180, 280) through the first end, the power unit configured to convert power received from a power source into at least one driving current and supply the at least one driving current to the conductor (80, 180, 280), wherein the conductor (80, 180, 280) is configured to generate at least one magnetic field when the at least one driving current is supplied thereto to create at least one corresponding induced current in the casing, and wherein the at least one driving current is of a frequency sufficient for the at least one induced current to encounter resistance in the casing to increase the temperature; characterised in that, the power unit comprises one or more three-phase inverters, and the at least one driving current is a three phase current; and, wherein the conductor (80, 180, 280) comprises one or more sets of three work coils (182a, 182b, 182c, 282a, 282b, 282c).
A method of controlling an exterior aircraft light, comprising: acquiring altitude data of an aircraft; identifying a first altitude condition, said first altitude condition being that said altitude data is one of less than or no greater than a predetermined altitude, wherein said identifying is executed by a controller; activating a first exterior aircraft light (120, 122, 124) in response to an existence of said first condition being identified, wherein said activating is executed by said controller; capturing a first image exteriorly of said aircraft; transmitting said first image to a trained image classification model; whereby a database is created that includes various images from different times of the day and/or of different visibility/lighting conditions, and each of these images is categorized, assigned, or labelled with a visibility classification; determining a first visibility classification for said first image using said trained image classification model; and controlling a magnitude of a light output from said first exterior aircraft light based on said first visibility classification. acquiring altitude data of an aircraft; identifying a first altitude condition, said first altitude condition being that said altitude data is one of less than or no greater than a predetermined altitude, wherein said identifying is executed by a controller; activating a first exterior aircraft light (120, 122, 124) in response to an existence of said first condition being identified, wherein said activating is executed by said controller; capturing a first image exteriorly of said aircraft; transmitting said first image to a trained image classification model; whereby a database is created that includes various images from different times of the day and/or of different visibility/lighting conditions, and each of these images is categorized, assigned, or labelled with a visibility classification; determining a first visibility classification for said first image using said trained image classification model; and controlling a magnitude of a light output from said first exterior aircraft light based on said first visibility classification.
Factor I, or a derivative of Factor I that has at least 90% amino acid identity across the entire length of the sequence with native Factor I and that retains C3b-inactivating and iC3b-degradation activity, for use in the prevention, treatment, or amelioration of Age-related Macular Degeneration, at a dosage that increases the level of C3b-inactivating and iC3b-degradation activity in a subject to a level that exceeds a normal level of C3b-inactivating and iC3b-degradation activity, wherein a normal level of C3b-inactivating and iC3b-degradation activity is provided by Factor I in the range 30-40 μg/ml Factor I in a subject's plasma.
A heat transfer unit for internal combustion engines - having a housing in which - at least a first duct is arranged through which a first fluid to be cooled flows, - at least a second duct is arranged through which a second fluid can flow, - and at least one duct is arranged through which a coolant can flow, wherein a bypass duct for the first fluid to be cooled is formed in the housing, via which duct the at least one first duct, through which the first fluid to be cooled flows, can be bypassed, characterized in that the at least one duct, through which the second fluid can flow, is arranged between the bypass duct and the duct through which the coolant can flow. - having a housing in which - at least a first duct is arranged through which a first fluid to be cooled flows, - at least a second duct is arranged through which a second fluid can flow, - and at least one duct is arranged through which a coolant can flow, - at least a first duct is arranged through which a first fluid to be cooled flows, - at least a second duct is arranged through which a second fluid can flow, - and at least one duct is arranged through which a coolant can flow,
One or more processor-accessible media including processor-executable instructions, the processor-executable instructions comprising a data structure of an application-level request for a secure application instruction protocol, the data structure including: a first application-level request (208) comprising application-specific instructions from a requestor, the instructions not directly indicating a request handler, and a requestor signature over the application-specific instructions from the requestor; and a second application-level request (208; 208 *) comprising application-specific instructions (306) from an intermediary for a subsequent intermediary that is to be a subsequent recipient of the request, an intermediary signature (308) over at least the application-specific instructions from the intermediary, and delegation of rights information (404) for the subsequent intermediary, the delegation of rights information enabling the subsequent intermediary to access data associated with the first application-level request or to further delegate rights to the data, wherein the subsequent intermediary and the application-specific instructions from the intermediary are dynamically determined by the intermediary analyzing the application-specific instructions from the requestor. a first application-level request (208) comprising application-specific instructions from a requestor, the instructions not directly indicating a request handler, and a requestor signature over the application-specific instructions from the requestor; and a second application-level request (208; 208 *) comprising application-specific instructions (306) from an intermediary for a subsequent intermediary that is to be a subsequent recipient of the request, an intermediary signature (308) over at least the application-specific instructions from the intermediary, and delegation of rights information (404) for the subsequent intermediary, the delegation of rights information enabling the subsequent intermediary to access data associated with the first application-level request or to further delegate rights to the data, wherein the subsequent intermediary and the application-specific instructions from the intermediary are dynamically determined by the intermediary analyzing the application-specific instructions from the requestor.
A support spindle assembly for rotatably supporting a coreless paper roll for dispensing, the support spindle assembly comprising; - a spindle base; - a spindle element extending along a central longitudinal axis and having a first end and a second end (13, 14), said spindle element being attached to said spindle base at said first end and rotationally fixed in relation to said spindle base; and - a first rotatable sleeve rotatably disposed about said spindle element, and rotatable in relation to said spindle base and to said spindle element 12); and whereby a resilient member disposed about said first end of said spindle element and configured to cooperate with said spindle base and with said first rotatable sleeve to exert an axial force directly or indirectly on the rotatable sleeve in order to provide said rotatable sleeve with rotational resistance caused by friction to prevent free wheeling of the coreless paper roll during unwinding. - a spindle base; - a spindle element extending along a central longitudinal axis and having a first end and a second end (13, 14), said spindle element being attached to said spindle base at said first end and rotationally fixed in relation to said spindle base; and - a first rotatable sleeve rotatably disposed about said spindle element, and rotatable in relation to said spindle base and to said spindle element 12); and
A polypeptide having amylase activity comprising an amino acid sequence having at least 78 % sequence identity to the amino acid sequence of SEQ ID NO: 1, and wherein the polypeptide comprises an amino acid substitution at position 311, with reference to the position numbering of the sequence shown as SEQ ID NO: 1; wherein the polypeptide has improved thermostability compared to the amylase of SEQ ID NO: 1.
An inkjet ink composition comprising: water; a dispersant; inorganic pigment particles having an average primary particle diameter of 100 nm or greater; and resin particles A having a glass transition temperature of 40°C or higher, wherein X nm of an average primary particle diameter of the inorganic pigment particles and Y nm of a volume average particle diameter of the resin particles A satisfy Y ≥ 1.1 × X. water; a dispersant; inorganic pigment particles having an average primary particle diameter of 100 nm or greater; and resin particles A having a glass transition temperature of 40°C or higher, wherein X nm of an average primary particle diameter of the inorganic pigment particles and Y nm of a volume average particle diameter of the resin particles A satisfy Y ≥ 1.1 × X.
Immunostimulatory complexed single-stranded RNA, comprising at least one RNA (molecule) complexed with one or more oligopeptides, which are not covalently bound to the RNA, wherein the nitrogen/phosphate ratio (N/P-ratio) of the at least one RNA of the complexed RNA to the one or more oligopeptides is in a range of 0.5-50, and the oligopeptide has a length of 8 to 15 amino acids and has the following empirical formula: (Arg) l;(Lys) m;(His) n;(Orn) o;(Xaa) x (formula I) wherein ∘ l + m + n + o + x = 8-15, and I, m, n or o independently of each other may be any number selected from 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 or 15, provided that the overall content of Arg, Lys, His and Orn represents at least 50% of all amino acids of the oligopeptide; and ∘ Xaa may be any amino acid selected from native or non-native amino acids except of Arg, Lys, His or Orn; and ∘ x may be any number selected from 0, 1, 2, 3, 4, 5, 6, 7, or 8, provided, that the overall content of Xaa does not exceed 50 % of all amino acids of the oligopeptide. ∘ l + m + n + o + x = 8-15, and I, m, n or o independently of each other may be any number selected from 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 or 15, provided that the overall content of Arg, Lys, His and Orn represents at least 50% of all amino acids of the oligopeptide; and ∘ Xaa may be any amino acid selected from native or non-native amino acids except of Arg, Lys, His or Orn; and ∘ x may be any number selected from 0, 1, 2, 3, 4, 5, 6, 7, or 8, provided, that the overall content of Xaa does not exceed 50 % of all amino acids of the oligopeptide.
An electrical plug connector for electrical and mechanical connection to an electrical mating plug connector, exhibiting an insulator element and an outer-conductor contact element which at least partly surrounds the insulator element, wherein spring lugs for electrical contacting of a corresponding outer conductor of the mating plug connector have been formed in the outer-conductor contact element, wherein in a non-plugged state of the plug connector with the mating plug connector at least one spring lug is spaced from the insulator element, and characterized in that the insulator element and at least a subset of the spring lugs have been set up such that in a partly plugged state or in a plugged state of the plug connector with the mating plug connector the insulator element has been clamped in centered manner by at least the subset of the spring lugs by virtue of a first element, applied onto the outer-conductor contact element, of the mating plug connector. wherein in a non-plugged state of the plug connector with the mating plug connector at least one spring lug is spaced from the insulator element, and characterized in that the insulator element and at least a subset of the spring lugs have been set up such that in a partly plugged state or in a plugged state of the plug connector with the mating plug connector the insulator element has been clamped in centered manner by at least the subset of the spring lugs by virtue of a first element, applied onto the outer-conductor contact element, of the mating plug connector.
A control information transmission method of a user equipment in a wireless communication system supporting multi-cell packet transmission service, comprising: generating control information indicating channel qualities of different cells; classifying the control information into two control information groups according to a predetermined rule, the two control information groups comprising a first control information group and a second control information group; encoding the first control information based on a first block coding and the second control information based on a second block coding; separately controlling (508; 512) a transmission power for the encoded first control information and the encoded second control information according to the first block coding and the second block coding; and transmitting the encoded first control information and the encoded second control information based on the adjusted transmission power. generating control information indicating channel qualities of different cells; classifying the control information into two control information groups according to a predetermined rule, the two control information groups comprising a first control information group and a second control information group; encoding the first control information based on a first block coding and the second control information based on a second block coding; separately controlling (508; 512) a transmission power for the encoded first control information and the encoded second control information according to the first block coding and the second block coding; and transmitting the encoded first control information and the encoded second control information based on the adjusted transmission power.