mhurhangee/ep-ind-claims huggingface dataset:
A load handling system for a lifting arrangement for a free-hanging load, the load handling system comprises - at least two ranging load radio units structured to be arranged at said load at separate positions, - at least three ranging fixed radio units structured to be arranged at said lifting arrangement at separate positions, wherein said separate positions are known, and wherein each of said at least three fixed radio units is configured to measure and determine a distance to each of said ranging load radio units, and to generate distance signals in dependence thereto, - at least one acceleration sensor configured to be arranged at said load, and configured to measure and determine acceleration values, and to generate an acceleration signal in dependence thereto, and - at least one angular velocity sensor configured to be arranged at said load, and configured to measure and determine angular velocity values, and to generate an angular velocity signal in dependence thereto, characterized in that said load handling system comprises a processing unit configured to receive said distance signals, said acceleration signal and wireless angular velocity signal, and to calculate positions of said at least two ranging load radio units in dependence of distance values of said distance signals, wherein said processing unit is configured to apply an estimation algorithm on said calculated positions, acceleration values and angular velocities, in order to determine three rotation angles being defined as angles at which the load is rotated about x-,y-, and z-axis with respect to said lifting arrangement. - at least two ranging load radio units structured to be arranged at said load at separate positions, - at least three ranging fixed radio units structured to be arranged at said lifting arrangement at separate positions, wherein said separate positions are known, and wherein each of said at least three fixed radio units is configured to measure and determine a distance to each of said ranging load radio units, and to generate distance signals in dependence thereto, - at least one acceleration sensor configured to be arranged at said load, and configured to measure and determine acceleration values, and to generate an acceleration signal in dependence thereto, and - at least one angular velocity sensor configured to be arranged at said load, and configured to measure and determine angular velocity values, and to generate an angular velocity signal in dependence thereto,
Dynamic bone anchor comprising an anchor member (1, 1', 1") having a tubular body defining an anchor axis, the anchor member comprising a bone engaging structure on at least a portion of its outer wall, a longitudinal core member (2, 2', 2") being at least partially provided in the tubular body, wherein the anchor member (1, 1', 1") and/or the core member (2, 2', 2") is made at least partially of a first material that comprises a Ni-Ti based shape memory alloy, wherein the first material is in the superelastic metallurgical state under conditions of use; and the core member (2, 2', 2") has a first portion (23, 23', 23"; 3, 3") that is not connected to the anchor member such that the anchor member is movable relative thereto, and also has a second portion (25, 22a) that is connected to the anchor member by a press-fit connection; wherein the core member (2, 2', 2") has a total length such that when the core member (2, 2', 2") is inserted into the anchor member (1, 1', 1"), the core member (2, 2', 2") extends through the anchor member (1, 1', 1") wherein a first end of the core member (2, 2', 2") projects out of a first end of the anchor member (1, 1', 1") and a tip portion projects out of a second end of the anchor member (1, 1', 1").
An antibody which specifically binds to human ADAMTS4 at an epitope consisting of the amino acid sequence depicted in SEQ ID NO: 9 and inhibits aggrecanase activity of human ADAMTS4 and human ADAMTS5.
A method for charging a multimedia conference service, comprising: a MultiMedia Telephony Application Server, MMTel AS, sending an Accounting Request, ACR, message to a Charging Data Function, CDF, unit according to a corresponding service request initiated by a User Equipment, UE; the CDF unit generating a corresponding Charging Data Record, CDR, according to the received ACR message, and sending the generated CDR to a Charging Gateway Function, CGF, unit; and the CGF unit preprocessing the received CDR, and sending, according to a pre-established rule, a CDR file to a Billing Domain, BD, to generate a corresponding bill; wherein the ACR message and the CDR comprise a field of Conference Identifier, CONF ID, and characterized in that the ACR message and the CDR comprise a field of Online Participants Number. a MultiMedia Telephony Application Server, MMTel AS, sending an Accounting Request, ACR, message to a Charging Data Function, CDF, unit according to a corresponding service request initiated by a User Equipment, UE; the CDF unit generating a corresponding Charging Data Record, CDR, according to the received ACR message, and sending the generated CDR to a Charging Gateway Function, CGF, unit; and the CGF unit preprocessing the received CDR, and sending, according to a pre-established rule, a CDR file to a Billing Domain, BD, to generate a corresponding bill; wherein the ACR message and the CDR comprise a field of Conference Identifier, CONF ID, and
An apparatus comprising: means for receiving at least two audio channel signals; means for determining, for a first frame, at least two parameters representing a difference between the at least two channel audio signals; means for scalar quantising the at least two parameters to generate at least two index values; means for determining an initial index map for reordering one of the at least two index values, and means for determining at least one further index map for reordering at least one further of the at least two index values, wherein the at least one further index map is determined based on the one of the at least two index values; means for reordering the one of the at least two index values based on the initial index map; means for reordering the further of the at least two index values based on the at least one further index map; means for entropy encoding the reordered one of the at least two index values based on an order position of the reordered one of the at least two index values; means for entropy encoding the reordered further of the at least two index values based on an order position of the reordered further of the at least two index values; means for generating a single channel representation of the at least two audio channel signals dependent on the at least two parameters; and means for encoding the single channel representation. means for receiving at least two audio channel signals; means for determining, for a first frame, at least two parameters representing a difference between the at least two channel audio signals; means for scalar quantising the at least two parameters to generate at least two index values; means for determining an initial index map for reordering one of the at least two index values, and means for determining at least one further index map for reordering at least one further of the at least two index values, wherein the at least one further index map is determined based on the one of the at least two index values; means for reordering the one of the at least two index values based on the initial index map; means for reordering the further of the at least two index values based on the at least one further index map; means for entropy encoding the reordered one of the at least two index values based on an order position of the reordered one of the at least two index values; means for entropy encoding the reordered further of the at least two index values based on an order position of the reordered further of the at least two index values; means for generating a single channel representation of the at least two audio channel signals dependent on the at least two parameters; and means for encoding the single channel representation.
A drawer pull-out guide comprising a first guide rail, preferably configured to be fixed to a furniture carcass, at least one further guide rail (10, 11) displaceably supported relative to the first guide rail, and at least one running carriage, wherein the at least one running carriage is displaceably supported between the first guide rail and the further guide rail (10, 11), the running carriage comprising: - a base body and a plurality of load-transmitting rolling bodies (15a, 15b, 15c, 15d) arranged in or one the base body, the load-transmitting rolling bodies (15a, 15b, 15c, 15d) being rotationally supported on the base body about a rotational axis orientated in a first direction, the running carriage further comprising a first roller and at least one second roller rotationally supported on the base body about a rotational axis orientated in a second direction, the rotational axis oriented in the second direction extending transversely to the rotational axis orientated in the first direction, wherein the first roller has a larger diameter than the second roller, wherein the rotational axis orientated in the first direction, in a mounting position of the running carriage, extends substantially horizontally, and/or the rotational axis orientated in the second direction, in a mounting position of the running carriage, extends substantially vertically, wherein the first guide rail includes at least one first running limb along which the running carriage is displaceably supported, characterized in that the first roller of the running carriage has a larger diameter than the second roller of the running carriage, wherein the first roller bears without clearance against the first running limb of the first guide rail and that the second roller is guided with a clearance to the first running limb of the first guide rail. - a base body and a plurality of load-transmitting rolling bodies (15a, 15b, 15c, 15d) arranged in or one the base body, the load-transmitting rolling bodies (15a, 15b, 15c, 15d) being rotationally supported on the base body about a rotational axis orientated in a first direction, the running carriage further comprising a first roller and at least one second roller rotationally supported on the base body about a rotational axis orientated in a second direction, the rotational axis oriented in the second direction extending transversely to the rotational axis orientated in the first direction, wherein the first roller has a larger diameter than the second roller, wherein the rotational axis orientated in the first direction, in a mounting position of the running carriage, extends substantially horizontally, and/or the rotational axis orientated in the second direction, in a mounting position of the running carriage, extends substantially vertically, wherein the first guide rail includes at least one first running limb along which the running carriage is displaceably supported,
An illumination device (100, 150, 200, 300, 400, 500, 550,600, 650, 800, 850) comprising: a light source (102, 202, 302, 322, 502, 522, 602, 652, 802, 852) that emits light having a first wavelength range along a first beam path; a wavelength converting element (112, 112', 512, 612, 812, 856) in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; and a color separation element (110, 210, 310, 510, 610, 810, 854) disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source, characterized in that the wavelength converting element comprises a rotatable element 2), the rotatable element having at least a first section being covered with a first phosphor that converts the light having a first wavelength range to the light having the second wavelength range and a second section being covered with a second phosphor that converts the light having a first wavelength range to the light having a third wavelength range, wherein the color separation element is configured to further prevent substantially all of the light having the third wavelength range from being incident on the light source. a light source (102, 202, 302, 322, 502, 522, 602, 652, 802, 852) that emits light having a first wavelength range along a first beam path; a wavelength converting element (112, 112', 512, 612, 812, 856) in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; and a color separation element (110, 210, 310, 510, 610, 810, 854) disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source, characterized in that the wavelength converting element comprises a rotatable element 2), the rotatable element having at least a first section being covered with a first phosphor that converts the light having a first wavelength range to the light having the second wavelength range and a second section being covered with a second phosphor that converts the light having a first wavelength range to the light having a third wavelength range, wherein the color separation element is configured to further prevent substantially all of the light having the third wavelength range from being incident on the light source.
A method for expression of transcribable unit(s) in a rodent target cell comprising the steps of: - providing a rodent target cell expressing a site-specific recombinase, - providing a DNA vector characterized by a 5' to 3' vector sequence orientation, wherein - said DNA vector comprises a plurality of recombination units, and wherein a single recombination unit comprises at least one transcribable unit and a first type and a second type of target site both recognizable by said site-specific recombinase, and wherein: - recombination can only occur between two target sites of the same type; - said first type of target site is located at the 5' start of said recombination unit and said second type of target site is located at the 3' end of said recombination unit; - for all recombination units comprised within said DNA vector, the orientation of all of said first type of target sites are the same, and the orientation of all of said second type of target sites are the same; - introducing said DNA vector into said rodent target cell. - providing a rodent target cell expressing a site-specific recombinase, - providing a DNA vector characterized by a 5' to 3' vector sequence orientation, wherein - said DNA vector comprises a plurality of recombination units, and wherein a single recombination unit comprises at least one transcribable unit and a first type and a second type of target site both recognizable by said site-specific recombinase, and wherein: - recombination can only occur between two target sites of the same type; - said first type of target site is located at the 5' start of said recombination unit and said second type of target site is located at the 3' end of said recombination unit; - for all recombination units comprised within said DNA vector, the orientation of all of said first type of target sites are the same, and the orientation of all of said second type of target sites are the same; - said DNA vector comprises a plurality of recombination units, and wherein a single recombination unit comprises at least one transcribable unit and a first type and a second type of target site both recognizable by said site-specific recombinase, and wherein: - recombination can only occur between two target sites of the same type; - said first type of target site is located at the 5' start of said recombination unit and said second type of target site is located at the 3' end of said recombination unit; - for all recombination units comprised within said DNA vector, the orientation of all of said first type of target sites are the same, and the orientation of all of said second type of target sites are the same; - recombination can only occur between two target sites of the same type; - said first type of target site is located at the 5' start of said recombination unit and said second type of target site is located at the 3' end of said recombination unit; - for all recombination units comprised within said DNA vector, the orientation of all of said first type of target sites are the same, and the orientation of all of said second type of target sites are the same; - introducing said DNA vector into said rodent target cell.
A training apparatus comprising: a seat part; a load application part comprising an adjustable load; right and left guide poles extending vertically with a predetermined spacing therebetween so that the seat part is centered between the guide poles; two lifting parts guided by the right and left guide poles to be movable up and down, respectively; rotating parts connected to shafts fixed of the two lifting parts, respectively, wherein each of the rotating parts comprises a handle part rotatably provided relative to the corresponding lifting part; and pulling members each including two ends thereof, a first end being connected to the load application part and a second end being connected to the lifting parts; characterized in that load transmission parts respectively comprised in the lifting parts connected to the second end of the pulling member to mechanically couple the load of the load application part to rotations of the handle parts about the shafts of the rotating parts, wherein the load transmission parts comprises: a rotation transmission part which transmits a rotational movement about the shaft of the rotating part; and a crank mechanism part which converts the rotational movement transmitted by the rotation transmission part into an up and down movement of a sliding shaft connected to the second end of the pulling member. a seat part; a load application part comprising an adjustable load; right and left guide poles extending vertically with a predetermined spacing therebetween so that the seat part is centered between the guide poles; two lifting parts guided by the right and left guide poles to be movable up and down, respectively; rotating parts connected to shafts fixed of the two lifting parts, respectively, wherein each of the rotating parts comprises a handle part rotatably provided relative to the corresponding lifting part; and pulling members each including two ends thereof, a first end being connected to the load application part and a second end being connected to the lifting parts; a rotation transmission part which transmits a rotational movement about the shaft of the rotating part; and a crank mechanism part which converts the rotational movement transmitted by the rotation transmission part into an up and down movement of a sliding shaft connected to the second end of the pulling member.
A method performed by a terminal (110, 210, 310) in a wireless communication system, the method comprising: receiving, from a base station (120, 220, 320), downlink signals for transmission beams; and transmitting, to the base station (120, 220, 320), measurement information including first information and second information, based on the downlink signals, wherein the first information is associated with a first transmission beam corresponding to a highest channel quality among the transmission beams, wherein the second information is associated with a group of at least one second transmission beam other than the first transmission beam among the transmission beams, wherein a channel quality of each beam of the group of at least one second transmission beam is greater than a threshold for identifying the group to be included in the measurement information, and wherein a broadcast message for determining the group is received from the base station (120, 220, 320). receiving, from a base station (120, 220, 320), downlink signals for transmission beams; and transmitting, to the base station (120, 220, 320), measurement information including first information and second information, based on the downlink signals, wherein the first information is associated with a first transmission beam corresponding to a highest channel quality among the transmission beams, wherein the second information is associated with a group of at least one second transmission beam other than the first transmission beam among the transmission beams, wherein a channel quality of each beam of the group of at least one second transmission beam is greater than a threshold for identifying the group to be included in the measurement information, and wherein a broadcast message for determining the group is received from the base station (120, 220, 320).
Drum pulper with a device for adding dilution water, disposed at the end of a pulping range of the rotating drum pulper for mixing the dilution water with pulp in the drum pulper, wherein the dilution water adding device comprises an annular groove disposed around the pulping range of the drum pulper, characterised in that the groove bottom of the annular groove, forms the outer wall of the drum pulper in the pulping range and two opposing annular groove walls project outwards along the radial direction of the drum pulper; further characterised by a plurality of curved pipes which project from the region of the annular groove into the interior of the drum pulper, wherein the opening of each curved pipe located radially on the inner side is aligned against the direction of rotation of the drum pulper and the opening of each curved pipe located radially on the outer side is connected to the annular groove by a groove bottom hole in the groove bottom; an annular groove cover, which is arranged to be non-rotatable and covers the annular groove on the outer circumference; a feed line for dilution water, which opens into the annular groove cover; and a discharge line for collecting and draining the dilution water, which opens into the annular groove cover. further characterised by a plurality of curved pipes which project from the region of the annular groove into the interior of the drum pulper, wherein the opening of each curved pipe located radially on the inner side is aligned against the direction of rotation of the drum pulper and the opening of each curved pipe located radially on the outer side is connected to the annular groove by a groove bottom hole in the groove bottom; an annular groove cover, which is arranged to be non-rotatable and covers the annular groove on the outer circumference; a feed line for dilution water, which opens into the annular groove cover; and a discharge line for collecting and draining the dilution water, which opens into the annular groove cover.
A hydrogen sulfide scavenging additive composition, wherein the composition comprises: a. an additive 1 comprising zinc octoate; and b. at least one activator comprising one or more hydroxyl alkylated amine; wherein the hydroxyl alkylated amine comprises: (i) tris(2-hydroxypropyl)amine (TIPA); (ii) a propoxylated derivative of tris(2-hydroxypropyl)amine (propoxylated TIPA) having average molecular weight of 1300 to 1400 Dalton; (iii) an ethoxylated derivative of tris(2-hydroxypropyl)amine (ethoxylated TIPA); or (iv) a mixture thereof a. an additive 1 comprising zinc octoate; and b. at least one activator comprising one or more hydroxyl alkylated amine; (i) tris(2-hydroxypropyl)amine (TIPA); (ii) a propoxylated derivative of tris(2-hydroxypropyl)amine (propoxylated TIPA) having average molecular weight of 1300 to 1400 Dalton; (iii) an ethoxylated derivative of tris(2-hydroxypropyl)amine (ethoxylated TIPA); or (iv) a mixture thereof