mhurhangee/ep-ind-claims huggingface dataset:
A medical article (10; 110; 210) comprising: a wound dressing (12; 112; 212) physically defined by a wound dressing perimeter (28; 128; 228) having a concave feature (30; 130a, 130b; 230a, 230b, 230c, 230d) that exhibits a local minimum (32; 132a, 132b; 232a, 232b, 232c, 232d), the wound dressing (12; 112; 212) comprising: a backing (16; 116; 216) having a first major surface (18; 118; 218) and a second major surface (20; 120; 220), an adhesive on the second major surface (20; 120; 220) of the backing, an absorbent pad (24; 124; 224) having a first major surface and a second major surface, the first major surface of the absorbent pad (24; 124; 224) proximate the second major surface (20; 120; 220) of the backing, wherein the absorbent pad (24; 124; 224) is defined by an absorbent pad perimeter and the backing (16; 116; 216) extends beyond the absorbent pad perimeter, a symmetry axis (34; 134; 234a, 234b) extending from the local minimum (32; 132a, 132b; 232a, 232b, 232c, 232d) to the wound dressing perimeter (28; 128; 228) opposite the local minimum (32; 132a, 132b; 232a, 232b, 232c, 232d); and a carrier (14; 114; 214) comprising at least two carrier strands (42; 142; 242) removably attached to the first major surface (18; 118; 218) of the backing, wherein at least a portion of the carrier (14; 114; 214) extends to the wound dressing perimeter (28; 128; 228), wherein the carrier (14; 114; 214) overlies at least a portion of the absorbent pad (24; 124; 224), and wherein the carrier (14; 114; 214) overlies at least a portion of the backing (16; 116; 216) on each side of the symmetry axis (34; 134; 234a, 234b) but does not overlie the backing (16; 116; 216) along the symmetry axis (34; 134; 234a, 234b). a backing (16; 116; 216) having a first major surface (18; 118; 218) and a second major surface (20; 120; 220), an adhesive on the second major surface (20; 120; 220) of the backing, an absorbent pad (24; 124; 224) having a first major surface and a second major surface, the first major surface of the absorbent pad (24; 124; 224) proximate the second major surface (20; 120; 220) of the backing, wherein the absorbent pad (24; 124; 224) is defined by an absorbent pad perimeter and the backing (16; 116; 216) extends beyond the absorbent pad perimeter, a symmetry axis (34; 134; 234a, 234b) extending from the local minimum (32; 132a, 132b; 232a, 232b, 232c, 232d) to the wound dressing perimeter (28; 128; 228) opposite the local minimum (32; 132a, 132b; 232a, 232b, 232c, 232d); and a carrier (14; 114; 214) comprising at least two carrier strands (42; 142; 242) removably attached to the first major surface (18; 118; 218) of the backing, wherein at least a portion of the carrier (14; 114; 214) extends to the wound dressing perimeter (28; 128; 228), wherein the carrier (14; 114; 214) overlies at least a portion of the absorbent pad (24; 124; 224), and wherein the carrier (14; 114; 214) overlies at least a portion of the backing (16; 116; 216) on each side of the symmetry axis (34; 134; 234a, 234b) but does not overlie the backing (16; 116; 216) along the symmetry axis (34; 134; 234a, 234b).
A compact apparatus for generating nuclear particles, comprising: an ion source, an accelerator, an high speed pump, an isotope extraction system and a target system; the ion source for producing an ion beam and operatively coupled to the accelerator; the accelerator for receiving the ion beam and accelerating the ion beam to yield an accelerated ion beam; the target system operatively coupled to the accelerator, for containing a nuclear particle-deriving target material which in operation undergoes a fusion reaction with the accelerated beam to emit nuclear particles, the target system dimensioned and configured as: a magnetic or linear target chamber operatively connected to the isotope extraction system and to the high speed pump, characterised in that the high speed pump is positioned between the accelerator and the target chamber (60,70) and is in operation configured to be synchronized with the ion beam flow from the accelerator, such that the ion beam is allowed to pass through the pump. a magnetic or linear target chamber operatively connected to the isotope extraction system and to the high speed pump, characterised in that the high speed pump is positioned between the accelerator and the target chamber (60,70) and is in operation configured to be synchronized with the ion beam flow from the accelerator, such that the ion beam is allowed to pass through the pump.
A refrigerator, comprising: a storage chamber, comprising a side wall; a shelf assembly, located inside the storage chamber, and comprising a rear shelf and a front shelf, where the front shelf is movable between a retraction position below the rear shelf and an extending position protruding in front of the rear shelf, the rear shelf comprises a carrying portion and a side frame portion connected to the carrying portion, and the side frame portion has a rear rail portion for supporting the front shelf portion at the retraction position; and a support unit, connected to the side wall to support the shelf assembly, and comprising a rear supporting portion for supporting the horizontally placed rear shelf, wherein the rear supporting portion has a horizontal rear supporting surface; wherein the rear supporting portion is located between the side frame portion and the side wall and is at least partially covered by the side frame portion in a direction perpendicular to the side wall, characterized in that, the support unit comprises a shaft portion, the rear shelf comprises a receiving slot for receiving the shaft portion, a rear end of the receiving slot is open, and the rear shelf inserts into the storage chamber from the front to the rear, so that the shaft portion enters the receiving slot. a storage chamber, comprising a side wall; a shelf assembly, located inside the storage chamber, and comprising a rear shelf and a front shelf, where the front shelf is movable between a retraction position below the rear shelf and an extending position protruding in front of the rear shelf, the rear shelf comprises a carrying portion and a side frame portion connected to the carrying portion, and the side frame portion has a rear rail portion for supporting the front shelf portion at the retraction position; and a support unit, connected to the side wall to support the shelf assembly, and comprising a rear supporting portion for supporting the horizontally placed rear shelf, wherein the rear supporting portion has a horizontal rear supporting surface; wherein the rear supporting portion is located between the side frame portion and the side wall and is at least partially covered by the side frame portion in a direction perpendicular to the side wall, characterized in that, the support unit comprises a shaft portion, the rear shelf comprises a receiving slot for receiving the shaft portion, a rear end of the receiving slot is open, and the rear shelf inserts into the storage chamber from the front to the rear, so that the shaft portion enters the receiving slot.
A peroxygenase variant, comprising a substitution at positions E16D of the mature polypeptide of SEQ ID NO: 2, wherein the variant has peroxygenase activity and wherein the variant has at least 85%, at least 90%, at least 95%, at least 96%, at least 97%, at least 98%, or at least 99%, but less than 100% sequence identity to the mature polypeptide of SEQ ID NO: 2.
A panel type artificial satellite in which the minimum necessary essential tools for an artificial satellite are installed, wherein at least two panel type artificial satellites can be connected to each other; and tools for the at least two panel type artificial satellites are installed in the at least two panel type artificial satellites, said panel type artificial satellites are closely connected in a multi network, the multi network being at least one of the communicating configured to communicate data among data processing devices, a heat pipe configured to provide thermal energy among thermal energy tools, and a battery supplying line connected among battery control tools, the at least two panel type artificial satellites include at least one of the data processing devices, the thermal energy tools and the battery control tools, and characterized in that if the at least one of the data processing device, the thermal energy tool and the battery control tool in one of the at least two panel type artificial satellites experiences a failure, the corresponding at least one of the data processing device, the thermal energy tool and the battery control tool in another of the at least two panel type artificial satellites compensates for the failure.
An active small-molecule donkey-hide gelatin mixture, wherein the weight-average molecular weight of said mixture is between 580-1300 Da, small peptides with molecular weight in the range of 200-1000 Da account for 81% of the total, those in the range of 1000-3000 Da account for 14%; wherein the mixture is prepared by using compound protease to perform the enzymatic hydrolysis on donkey-hide gelatin juice, and the said compound proteases comprises papain and proline protease.
An irrigated catheter ablation system comprising: an irrigated ablation catheter assembly including: an irrigated electrode having a proximal portion with a proximal end, a distal portion with a distal end, an outer body portion including an outer surface, an inner cavity defined within the outer body portion, and at least one passageway that extends from the inner cavity to the outer surface of the electrode, and a catheter shaft including a proximal end and a distal end; a fluid source connected to or in operative communication with the catheter assembly; an energy source connected to or in operative communication with the catheter assembly; and an irrigation temperature control mechanism in communication with the fluid source and the energy source, wherein the irrigation temperature control mechanism is adapted to control or to regulate irrigation flow of fluid from the fluid source in response to temperature measurements received from a temperature sensor, wherein at least a portion of the temperature sensor is disposed within the electrode, wherein the flow of fluid during ablation includes flow that alternates between a constant maintenance flow rate having a flow of fluid and a constant amplified flow rate having a flow of fluid that is greater than the maintenance flow rate. an irrigated ablation catheter assembly including: an irrigated electrode having a proximal portion with a proximal end, a distal portion with a distal end, an outer body portion including an outer surface, an inner cavity defined within the outer body portion, and at least one passageway that extends from the inner cavity to the outer surface of the electrode, and a catheter shaft including a proximal end and a distal end; an irrigated electrode having a proximal portion with a proximal end, a distal portion with a distal end, an outer body portion including an outer surface, an inner cavity defined within the outer body portion, and at least one passageway that extends from the inner cavity to the outer surface of the electrode, and a catheter shaft including a proximal end and a distal end; a fluid source connected to or in operative communication with the catheter assembly; an energy source connected to or in operative communication with the catheter assembly; and an irrigation temperature control mechanism in communication with the fluid source and the energy source, wherein the irrigation temperature control mechanism is adapted to control or to regulate irrigation flow of fluid from the fluid source in response to temperature measurements received from a temperature sensor, wherein at least a portion of the temperature sensor is disposed within the electrode, wherein the flow of fluid during ablation includes flow that alternates between a constant maintenance flow rate having a flow of fluid and a constant amplified flow rate having a flow of fluid that is greater than the maintenance flow rate.
A secondary bag for urine comprising means apt to connect said secondary bag to a primary bag whereby the urine contained in said primary bag is emptied into said secondary bag and wherein said secondary bag is characterized in that containing a water soluble bag containing a substance apt to absorb urine, wherein said substance is a molecule absorbent adapted to transform the urine into gel.
A method for acquiring X-ray image data of an imaging volume, the method using a detector and a distributed X-ray source structure having a plurality of single source elements, wherein the single source elements are uniformly distributed with a common pitch l p to each other, and where the distributed X-ray source structure is arranged linearly on an axis in a plane or over an area of a plane, and where said linear or area arrangement might be arcuated with at least one predefined radius by the shape of a supporting structure, characterised in that the method comprises: moving the distributed X-ray source structure and/or the detector in a direction following the direction of a tangent vector at a defined location fitting the shape of the distributed X-ray source structure, wherein the maximum moving distance d max of the distributed X-ray source structure during the acquisition of the X-ray image data is limited up to the length l p of the pitch, and wherein the movement velocity changes in a saw-tooth-like or sinusoidal manner; emitting X-rays from the distributed X-ray source structure during the movement of the distributed X-ray source structure and/or the detector; generating a plurality of signals in response to the X-rays incident upon the detector. moving the distributed X-ray source structure and/or the detector in a direction following the direction of a tangent vector at a defined location fitting the shape of the distributed X-ray source structure, wherein the maximum moving distance d max of the distributed X-ray source structure during the acquisition of the X-ray image data is limited up to the length l p of the pitch, and wherein the movement velocity changes in a saw-tooth-like or sinusoidal manner; emitting X-rays from the distributed X-ray source structure during the movement of the distributed X-ray source structure and/or the detector; generating a plurality of signals in response to the X-rays incident upon the detector.
A polypeptide consisting of: (i) the amino acid sequence VLTSGIVFV (SEQ ID NO: 2); or (ii) the amino acid sequence TLIPVCWTA (SEQ ID NO: 3) wherein the polypeptide forms a complex with HLA-A*02. (i) the amino acid sequence VLTSGIVFV (SEQ ID NO: 2); or (ii) the amino acid sequence TLIPVCWTA (SEQ ID NO: 3)
Compounds of formula in which A a represents =C(R 7)-, A b represents -S m - or =C(R 2)-, A c represents =C(R 3)-, A d represents -S m - or =C(R 8)-, resulting in the following structural units: A9, A10, R 1 represents ethyl, R 2 represents hydrogen, R 3 represents hydrogen, R 7 represents hydrogen, R 8 represents hydrogen, Q represents a heteroaromatic 9-membered fused bicyclic ring system from the group consisting of Q2 and Q3, R 4 represents methyl, R 5 represents trifluoromethyl, R 6 represents hydrogen, m represents 0, n represents 0, 1 or 2. A a represents =C(R 7)-, A b represents -S m - or =C(R 2)-, A c represents =C(R 3)-, A d represents -S m - or =C(R 8)-, R 1 represents ethyl, R 2 represents hydrogen, R 3 represents hydrogen, R 7 represents hydrogen, R 8 represents hydrogen, Q represents a heteroaromatic 9-membered fused bicyclic ring system from the group consisting of Q2 and Q3, R 4 represents methyl, R 5 represents trifluoromethyl, R 6 represents hydrogen, m represents 0, n represents 0, 1 or 2.
A terminal comprising: a receiving section configured to receive a higher layer parameter indicating whether group hopping of a sequence used in an uplink control channel is to be enabled or disabled; a control section configured to determine a group number, u, based on a slot number and a frequency hopping index, if the higher layer parameter indicates enable, as u = f gh + f ss mod 30 wherein ƒ gh = ∑ m = 0 7 2 m c 8 2 n s μ + n hop + m mod 30 f ss = n ID mod 30 where c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; and a transmitting section configured to transmit the uplink control channel, to which the sequence corresponding to the group number is applied. a receiving section configured to receive a higher layer parameter indicating whether group hopping of a sequence used in an uplink control channel is to be enabled or disabled; a control section configured to determine a group number, u, based on a slot number and a frequency hopping index, if the higher layer parameter indicates enable, as u = f gh + f ss mod 30 wherein ƒ gh = ∑ m = 0 7 2 m c 8 2 n s μ + n hop + m mod 30 f ss = n ID mod 30 where c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; and c(i) is a pseudo-random sequence n s μ is the slot number n hop is the frequency hopping index n ID is a certain index; a transmitting section configured to transmit the uplink control channel, to which the sequence corresponding to the group number is applied.
A method of setting a maximum output power for user equipment, comprising: defining, at the user equipment, a range for the maximum output power, the range including a maximum value and a minimum value, the minimum value being based on a maximum power signaled by a base station, a power class of the user equipment, a maximum power reduction permitted, an additional maximum power reduction permitted, a reduction term dependent on transmission bandwidth, and a power management term, the power management term representing a power reduction due to transmission on different radio access technologies by the user equipment; and setting, at the user equipment, the maximum output power within the defined range. defining, at the user equipment, a range for the maximum output power, the range including a maximum value and a minimum value, the minimum value being based on a maximum power signaled by a base station, a power class of the user equipment, a maximum power reduction permitted, an additional maximum power reduction permitted, a reduction term dependent on transmission bandwidth, and a power management term, the power management term representing a power reduction due to transmission on different radio access technologies by the user equipment; and setting, at the user equipment, the maximum output power within the defined range.
Method for assigning tyre modules (1, 2, 3) to different tyre positions on a vehicle, with the following steps: a) providing vehicle tyres comprising tyre modules (1, 2, 3), wherein the tyre modules (1, 2, 3) have at least one acceleration sensor and are arranged on the inner side of the tyre, b) measuring radial acceleration values with the acceleration sensors arranged on the tyre modules (1, 2, 3), wherein the vehicle tyres of the vehicle are at a standstill, c) assigning the acceleration value to an angular position of the tyre module (1, 2, 3) in the vehicle tyre, characterized by d) assigning the angular position ascertained to a tyre-module marking on the sidewall of the vehicle tyre, wherein the tyre-module position in the vehicle tyre is indicated by the tyre-module marking and wherein, if the angular position ascertained and the tyre-module marking on the sidewall match, an assignment of the tyre module (1, 2, 3) to the respective tyre position on the vehicle is performed. a) providing vehicle tyres comprising tyre modules (1, 2, 3), wherein the tyre modules (1, 2, 3) have at least one acceleration sensor and are arranged on the inner side of the tyre, b) measuring radial acceleration values with the acceleration sensors arranged on the tyre modules (1, 2, 3), wherein the vehicle tyres of the vehicle are at a standstill, c) assigning the acceleration value to an angular position of the tyre module (1, 2, 3) in the vehicle tyre, characterized by d) assigning the angular position ascertained to a tyre-module marking on the sidewall of the vehicle tyre, wherein the tyre-module position in the vehicle tyre is indicated by the tyre-module marking and wherein, if the angular position ascertained and the tyre-module marking on the sidewall match, an assignment of the tyre module (1, 2, 3) to the respective tyre position on the vehicle is performed.
A pharmaceutical composition for use in treating an interferon-beta-resistant cancer disease, the composition comprising, as active ingredients: (a) siRNA which binds to mRNA of cFLIP gene in a complementary manner; and (b) a human interferon-beta mutant which comprises a glycine-asparagine-isoleucine-threonine-valine (GNITV) sequence at the C-terminus or in which threonine or serine is substituted for arginine at the 27th amino acid, in a wild-type human interferon-beta amino acid sequence defined by SEQ ID NO: 1, wherein the human interferon-beta mutant comprises any one amino acid sequence selected from the group consisting of SEQ ID NO: 2 to SEQ ID NO: 6, and wherein the siRNA comprises any one nucleotide sequence selected from the group consisting of SEQ ID NO: 9 to SEQ ID NO: 13. (a) siRNA which binds to mRNA of cFLIP gene in a complementary manner; and (b) a human interferon-beta mutant which comprises a glycine-asparagine-isoleucine-threonine-valine (GNITV) sequence at the C-terminus or in which threonine or serine is substituted for arginine at the 27th amino acid, in a wild-type human interferon-beta amino acid sequence defined by SEQ ID NO: 1, wherein the human interferon-beta mutant comprises any one amino acid sequence selected from the group consisting of SEQ ID NO: 2 to SEQ ID NO: 6, and wherein the siRNA comprises any one nucleotide sequence selected from the group consisting of SEQ ID NO: 9 to SEQ ID NO: 13.
A plasma chamber of a plasma processing system, the plasma chamber defining a plasma channel having a first side and a second side oppositely disposed along a length of the plasma channel, the plasma chamber comprising: a first section constructed from a dielectric material; a second section constructed from the dielectric material; characterized by the first section having (i) a first flange positioned along the first side of the plasma channel and extending beyond the first side by a first width, and (ii) a second flange positioned along the second side of the plasma channel and extending beyond the second side by a second width; the second section having (i) a third flange positioned along the first side of the plasma channel and extending beyond the first side by the first width, and (ii) a fourth flange positioned along the second side of the plasma channel and extending beyond the second side by the second width; and an interface that bonds together the first and second sections (204, 206) at between the first and third flanges (210, 216) and between the second and fourth flanges (212, 218). a first section constructed from a dielectric material; a second section constructed from the dielectric material; characterized by the first section having (i) a first flange positioned along the first side of the plasma channel and extending beyond the first side by a first width, and (ii) a second flange positioned along the second side of the plasma channel and extending beyond the second side by a second width; the second section having (i) a third flange positioned along the first side of the plasma channel and extending beyond the first side by the first width, and (ii) a fourth flange positioned along the second side of the plasma channel and extending beyond the second side by the second width; and an interface that bonds together the first and second sections (204, 206) at between the first and third flanges (210, 216) and between the second and fourth flanges (212, 218).