mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a communication system, the method comprising: transmitting, to a base station, a random access preamble on a physical random access channel, PRACH; receiving, from the base station, a random access response, RAR, for the transmission of the PRACH; transmitting, to the base station, a physical uplink control channel, PUCCH, with a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, information for the RAR; wherein a slot for a transmission of the PUCCH is identified based on a sum of a first parameter related to a slot for reception of the RAR, the first parameter being a slot index n where an end position of a physical downlink shared channel, PDSCH, associated with the RAR is located, a second parameter determined based on a timing indicator field included in the RAR, and a third parameter determined based on a subcarrier spacing, SCS, of the PUCCH, and. wherein: the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz. transmitting, to a base station, a random access preamble on a physical random access channel, PRACH; receiving, from the base station, a random access response, RAR, for the transmission of the PRACH; transmitting, to the base station, a physical uplink control channel, PUCCH, with a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, information for the RAR; wherein a slot for a transmission of the PUCCH is identified based on a sum of a first parameter related to a slot for reception of the RAR, the first parameter being a slot index n where an end position of a physical downlink shared channel, PDSCH, associated with the RAR is located, a second parameter determined based on a timing indicator field included in the RAR, and a third parameter determined based on a subcarrier spacing, SCS, of the PUCCH, and. wherein: the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz. the third parameter is 2 in case that the SCS of the PUCCH is 15kHz, the third parameter is 3 in case that the SCS of the PUCCH is 30kHz, the third parameter is 4 in case that the SCS of the PUCCH is 60kHz, and the third parameter is 6 in case that the SCS of the PUCCH is 120kHz.
A power factor correction module for use at rated voltages of substantially greater than 1000 V, composed of an electrically interconnected arrangement of power capacitors, filter circuit or current limiting chokes, fuses as well as switching devices and, if required, further electrical components, wherein the above mentioned means are combined in a constructively compact unit, furthermore an insert frame being included having means for moving the module into and out from a cabinet system, characterized in that the insert frame has two surface areas, wherein in a first surface area, the power capacitors are located spatially next to one another, and in a second surface area the windings of the filter circuit or current limiting chokes are located spatially one above the other such that loss heat of the chokes can be discharged without impairing the functional mode of the power capacitors, the height of the stack arrangement of the choke windings exceeds that of the arrangement of power capacitors, wherein the fuses and switching devices are included in the space volume remaining in this respect, and the first surface area for the power capacitors is oriented toward the front side, and the second surface area for the windings of the filter circuit or current limiting chokes is oriented toward the rear side of the module.
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising: a foundation element having an interior surface and an opposite exterior surface, the interior surface defining at least a portion of a void within the upper for receiving a foot of a wearer; a first strand located adjacent to the exterior surface and substantially parallel to the exterior surface for a distance of at least five centimeters; and a second strand incorporating a thermoplastic polymer material that is bonded to both the first strand and the foundation element, the first strand being positioned between the foundation element and the second strand. a foundation element having an interior surface and an opposite exterior surface, the interior surface defining at least a portion of a void within the upper for receiving a foot of a wearer; a first strand located adjacent to the exterior surface and substantially parallel to the exterior surface for a distance of at least five centimeters; and a second strand incorporating a thermoplastic polymer material that is bonded to both the first strand and the foundation element, the first strand being positioned between the foundation element and the second strand.
A motor damping structure for an actuator device comprising: a motor housing including a drive motor therein; and a casing (12, 212) including an upper actuator case (13, 213) and a lower actuator case (14, 214) to accommodate the motor housing therebetween, the casing (12, 212) including a motor support section formed integrally in the upper actuator case (13, 213) to support the drive motor by contacting an outside surface of the motor housing, characterized by the motor support section having a reinforcing rib (21, 221) formed integrally on a corner section of the upper actuator case (13, 213) and an elastic contacting member (22, 222) protruding from the upper actuator case (13, 213) to contact a right upper slanted surface of the motor housing, wherein the motor support section further has an additional reinforcing rib (21, 221) formed integrally on a second corner section of the upper actuator case (13, 213) and an elastic contacting member (22, 222) disposed on an opposite side from the elastic contacting member (22, 222) with respect to the motor housing and protruding from the upper actuator case (13, 213) to contact a left upper slanted surface of the motor housing, the elastic contacting members (22, 222) being each a thin plate member protruding from a slanted surface (21 a, 22 e) of the corresponding reinforcing rib (21, 221), wherein an upper face section of the motor housing has a generally flat surface, and the right and left upper slanted surfaces of the motor housing are chamfered shape surfaces disposed adjacent to the flat surface. a motor housing including a drive motor therein; and a casing (12, 212) including an upper actuator case (13, 213) and a lower actuator case (14, 214) to accommodate the motor housing therebetween, the casing (12, 212) including a motor support section formed integrally in the upper actuator case (13, 213) to support the drive motor by contacting an outside surface of the motor housing, characterized by the motor support section having a reinforcing rib (21, 221) formed integrally on a corner section of the upper actuator case (13, 213) and an elastic contacting member (22, 222) protruding from the upper actuator case (13, 213) to contact a right upper slanted surface of the motor housing, wherein the motor support section further has an additional reinforcing rib (21, 221) formed integrally on a second corner section of the upper actuator case (13, 213) and an elastic contacting member (22, 222) disposed on an opposite side from the elastic contacting member (22, 222) with respect to the motor housing and protruding from the upper actuator case (13, 213) to contact a left upper slanted surface of the motor housing, the elastic contacting members (22, 222) being each a thin plate member protruding from a slanted surface (21 a, 22 e) of the corresponding reinforcing rib (21, 221), wherein an upper face section of the motor housing has a generally flat surface, and the right and left upper slanted surfaces of the motor housing are chamfered shape surfaces disposed adjacent to the flat surface.
A sliding assembly for the passenger compartment of a motor vehicle comprising: - a U-shaped profiled slide intended to be secured to the floor of said vehicle and comprising a horizontal base and two lateral wings (12, 13) provided at their free ends with two respective internal flanges (14, 15) facing each other, and - a console designed to be slidably and removably mounted on said slide; - said console further comprising a locking device comprising two jaws (136, 137) mounted so as to pivot about the same longitudinal axis and capable of being moved by control means (130, 140) between a spread position and a close position in which they are contained between said internal flanges, 15) so as not to interfere with the said slide when the said bracket is placed on this slide or when it is extracted, characterised in that in their separated position the jaws have their lower ends in the form of beaks (138, 139), the said jaws being respectively in engagement with the lower faces of the two internal flanges (14, 15) of the said slide. - a U-shaped profiled slide intended to be secured to the floor of said vehicle and comprising a horizontal base and two lateral wings (12, 13) provided at their free ends with two respective internal flanges (14, 15) facing each other, and - a console designed to be slidably and removably mounted on said slide; - said console further comprising a locking device comprising two jaws (136, 137) mounted so as to pivot about the same longitudinal axis and capable of being moved by control means (130, 140) between a spread position and a close position in which they are contained between said internal flanges, 15) so as not to interfere with the said slide when the said bracket is placed on this slide or when it is extracted, characterised in that in their separated position the jaws have their lower ends in the form of beaks (138, 139), the said jaws being respectively in engagement with the lower faces of the two internal flanges (14, 15) of the said slide.
Fluid circuit comprising a 3-way valve comprising a central channel into which opens an inlet port, a first outlet port and a second outlet port, the 3-way valve further comprising an adjustment device (2, 3, 4) simultaneously ensuring the opening, respectively the closing of the first outlet port and the closing respectively the opening of the second outlet port so that the closing speed of the first outlet port is faster than the opening speed of the second outlet port, characterized in that the fluid circuit is a cooling circuit comprising a first component connected to the first outlet port and a second component connected to the second outlet port, the pressure drop generated by the first component in the 3-way valve being lower than the pressure drop generated by the second component in the 3-way valve.
Method for operating a voltage converter, in particular a DC/DC converter, of a motor vehicle, having at least two converter strands (4, 5) which are connected in parallel and are connected between a high-voltage side and a low-voltage side of the voltage converter for converting the voltage, having at least one cooling device which carries a coolant and is assigned to the converter strands (4, 5), wherein at least one temperature sensor (6, 7) is assigned to each of the converter strands (4, 5), having the following steps of: a) capturing an input voltage, an output voltage and an operating current of each converter strand (4, 5), b) capturing an instantaneous converter strand temperature by means of the respective temperature sensor (6, 7), c) determining a coolant temperature for each converter strand on the basis of the values captured in steps a) and b), d) comparing the two determined coolant temperatures (T_1, T_2) with one another, and e) determining the functionality of the temperature sensors (6, 7) on the basis of the result of the comparison. a) capturing an input voltage, an output voltage and an operating current of each converter strand (4, 5), b) capturing an instantaneous converter strand temperature by means of the respective temperature sensor (6, 7), c) determining a coolant temperature for each converter strand on the basis of the values captured in steps a) and b), d) comparing the two determined coolant temperatures (T_1, T_2) with one another, and e) determining the functionality of the temperature sensors (6, 7) on the basis of the result of the comparison.
A cytotoxic protein comprising: a) an immunoglobulin-type binding region comprising one or more polypeptides and capable of specifically binding at least one extracellular target biomolecule, wherein said immunoglobulin-type binding region is derived from an antibody, wherein said extracellular target biomolecule is CD38; and b) a Shiga toxin effector region comprising a polypeptide that is capable of effectuating Shiga toxin A Subunit cytotoxicity, and comprises: an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; wherein the protein is capable of causing death of a cell physically coupled with CD38; and wherein the binding region and the Shiga toxin effector region are oriented within the protein such that the binding region is located at a position that is more proximal to the carboxy-terminus of the Shiga toxin effector region than the amino-terminus of the Shiga toxin effector region. a) an immunoglobulin-type binding region comprising one or more polypeptides and capable of specifically binding at least one extracellular target biomolecule, wherein said immunoglobulin-type binding region is derived from an antibody, wherein said extracellular target biomolecule is CD38; and b) a Shiga toxin effector region comprising a polypeptide that is capable of effectuating Shiga toxin A Subunit cytotoxicity, and comprises: an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; an amino acid sequence that is at least 90% identical to the amino acid sequence shown in any of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (i) amino acids 75 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (ii) amino acids 1 to 241 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; (iii) amino acids 1 to 251 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3; and (iv) amino acids 1 to 261 of SEQ ID NO:1, SEQ ID NO:2, or SEQ ID NO:3;
A polyester fabric having a thermal resistance constant of 1.0 to 6.5 as defined by the following calculation formula 1 when the fabric is uncoated: Thermal resistance constant X = T × t / 600 × D wherein T is the temperature of a hot rod during free fall in the range of 350 to 750 °C; t is the amount of time (sec) taken for the hot rod to pass through the polyester fabric from a point of contact with the polyester fabric; and D is the thickness (mm) of the polyester fabric, wherein the hot rod is made of steel having a thermal conductivity of 55 W/m·K and a weight of 50 g, and the hot rod is placed above the polyester fabric at a distance of about 76 mm, wherein the thickness of the polyester fabric, as measured according to the ASTM D 1777 method, is 0.18 to 0.43 mm, and wherein the thermal resistance constant as defined by the calculation formula 1 is 1.20 to 3.5 when the temperature of the hot rod is 450 °C; and 1.0 to 2.0 when the temperature of the hot rod is 600 °C, wherein the polyester fabric comprises a polyester fiber prepared from polyester chips having an intrinsic viscosity of 1.05 to 2.0 dl/g, wherein the polyester fiber is a polyethylene terephthalate fiber. wherein T is the temperature of a hot rod during free fall in the range of 350 to 750 °C; t is the amount of time (sec) taken for the hot rod to pass through the polyester fabric from a point of contact with the polyester fabric; and D is the thickness (mm) of the polyester fabric, wherein the hot rod is made of steel having a thermal conductivity of 55 W/m·K and a weight of 50 g, and the hot rod is placed above the polyester fabric at a distance of about 76 mm, wherein the thickness of the polyester fabric, as measured according to the ASTM D 1777 method, is 0.18 to 0.43 mm, and wherein the thermal resistance constant as defined by the calculation formula 1 is 1.20 to 3.5 when the temperature of the hot rod is 450 °C; and 1.0 to 2.0 when the temperature of the hot rod is 600 °C, wherein the polyester fabric comprises a polyester fiber prepared from polyester chips having an intrinsic viscosity of 1.05 to 2.0 dl/g, wherein the polyester fiber is a polyethylene terephthalate fiber.
A radiator shroud structure comprising: a vehicle-body frame including a head pipe and a pair of left and right main frames extending rearward from the head pipe, the vehicle-body frame supporting a fuel tank between the left and right main frames and supporting a radiator below the left and right main frames; and radiator shrouds covering lateral sides of the radiator, wherein each shroud is fastened and fixed to a shroud fastening portion (12b, 12d) provided on an outer side wall of the corresponding main frame, an upper portion (41, 42) of each shroud is arranged along an outer side face of the corresponding main frame, and a lower portion of each shroud extends downward from the upper portion (41, 42) and is coupled to the radiator, and characterized in that a tank cover covering the fuel tank from above is provided, wherein lower sides of the tank cover are arranged along upper sides of the main frames in a side view, and each shroud is arranged such that the upper portion (41, 42) of each shroud is arranged along the corresponding lower side of the tank cover and also flush with the corresponding lower side of the tank cover. a vehicle-body frame including a head pipe and a pair of left and right main frames extending rearward from the head pipe, the vehicle-body frame supporting a fuel tank between the left and right main frames and supporting a radiator below the left and right main frames; and radiator shrouds covering lateral sides of the radiator, wherein each shroud is fastened and fixed to a shroud fastening portion (12b, 12d) provided on an outer side wall of the corresponding main frame, an upper portion (41, 42) of each shroud is arranged along an outer side face of the corresponding main frame, and a lower portion of each shroud extends downward from the upper portion (41, 42) and is coupled to the radiator, and characterized in
A device configured to be implanted in a valve of a subject, the valve comprising an annulus, and the device comprising: a frame having an annular portion configured to be aligned with the annulus of the valve; a visible circumferential marking, configured to be aligned with the annulus, and positioned around the annular portion of the frame; a skirt (60, 66) disposed over at least a portion of the frame, wherein the visible circumferential marking is presented on or visible through the skirt (60, 66); and characterized in that the device also comprises a second visible circumferential marking positioned around the frame at a location that, when implanted, is superior to the first visible circumferential marking, wherein the second circumferential marking indicates a position to which a sheath of a delivery system is to be withdrawn to allow the device to partially expand during a part of an implant procedure in which the device is being positioned within the valve. a frame having an annular portion configured to be aligned with the annulus of the valve; a visible circumferential marking, configured to be aligned with the annulus, and positioned around the annular portion of the frame; a skirt (60, 66) disposed over at least a portion of the frame, wherein the visible circumferential marking is presented on or visible through the skirt (60, 66); and characterized in that the device also comprises a second visible circumferential marking positioned around the frame at a location that, when implanted, is superior to the first visible circumferential marking, wherein the second circumferential marking indicates a position to which a sheath of a delivery system is to be withdrawn to allow the device to partially expand during a part of an implant procedure in which the device is being positioned within the valve.
An illumination element for illuminating a surgical field in a patient, said illumination element comprising: a light input section for inputting light into the illumination element; a light transmitting section, wherein the inputted light is transmitted through the light transmitting section, and wherein the light input section is optically coupled to a proximal section of the light transmitting section; and a light output section, wherein the light output section is adjacent a distal section of the light transmitting section, and wherein the light output section comprises a bore extending at least partially inward into a distal end of the light output section, and wherein a plurality of optical structures are disposed on an inner wall of the bore, the optical structures configured to extract light from the light output section and direct the extracted light toward the surgical field, wherein the bore at the distal end of the light output section is cone-shaped with the larger diameter of the cone closest to the distal end, characterized in that the optical structures are disposed on an inner surface of the cone. a light input section for inputting light into the illumination element; a light transmitting section, wherein the inputted light is transmitted through the light transmitting section, and wherein the light input section is optically coupled to a proximal section of the light transmitting section; and a light output section, wherein the light output section is adjacent a distal section of the light transmitting section, and wherein the light output section comprises a bore extending at least partially inward into a distal end of the light output section, and wherein a plurality of optical structures are disposed on an inner wall of the bore, the optical structures configured to extract light from the light output section and direct the extracted light toward the surgical field, wherein the bore at the distal end of the light output section is cone-shaped with the larger diameter of the cone closest to the distal end,