mhurhangee/ep-ind-claims huggingface dataset:
A tool, comprising: a first portion comprising a nozzle; and a second portion comprising a shut off pin opposite the nozzle; characterized by, a film gate between the first portion and the second portion, wherein the film gate has an injection thickness (t 1); wherein the first portion and/or the second portion is movable to close and form a mold cavity so that an injected polymer can be compressed between the first portion and the second portion; wherein the shut off pin is movable to directly contact the nozzle and prevent polymer melt in the nozzle from leaking into a cavity of the tool after injection of polymer into the tool; and wherein the tool is configured such that the compression both decreases a film gate thickness (t 1, t 3) from the injection thickness (ti) to a compression thickness (t 3), moves the shut off pin, and forms the mold cavity. a first portion comprising a nozzle; and a second portion comprising a shut off pin opposite the nozzle; characterized by, a film gate between the first portion and the second portion, wherein the film gate has an injection thickness (t 1); wherein the first portion and/or the second portion is movable to close and form a mold cavity so that an injected polymer can be compressed between the first portion and the second portion; wherein the shut off pin is movable to directly contact the nozzle and prevent polymer melt in the nozzle from leaking into a cavity of the tool after injection of polymer into the tool; and wherein the tool is configured such that the compression both decreases a film gate thickness (t 1, t 3) from the injection thickness (ti) to a compression thickness (t 3), moves the shut off pin, and forms the mold cavity.
A method for controlling uplink transmission power in a wireless communication system, the method performed by a wireless device and the method comprising: receiving transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving a TPC payload by monitoring a downlink control channel based on the TPC monitoring information, the TPC payload including a plurality of TPCs; acquiring a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with dual connectivity by being configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is only one cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is only one cell which is capable of receiving a second PUCCH in the second set of serving cells. receiving transmit power command, TPC, monitoring information to adjust an uplink transmission power for a first physical uplink control channel, PUCCH, cell and a second PUCCH cell, the TPC monitoring information including a first TPC index assigned to the first PUCCH cell and a second TPC index assigned to the second PUCCH cell; receiving a TPC payload by monitoring a downlink control channel based on the TPC monitoring information, the TPC payload including a plurality of TPCs; acquiring a first TPC for the first PUCCH cell and a second TPC for the second PUCCH cell from the plurality of TPCs based on the first TPC index and the second TPC index; and applying the first TPC and the second TPC to PUCCH transmissions on the first PUCCH cell and the second PUCCH cell, wherein the wireless device is configured with dual connectivity by being configured with a first set of serving cells and a second set of serving cells, wherein the first PUCCH cell is only one cell which is capable of receiving a first PUCCH in the first set of serving cells, and wherein the second PUCCH cell is only one cell which is capable of receiving a second PUCCH in the second set of serving cells.
An avalanche photodiode array for detecting electromagnetic radiation comprising a semiconductor substrate that comprises a first main surface and a second main surface which are opposed to each other, a plurality of n-doped anode regions formed at the main surface and separated from each other by pixel insulation regions, a p-doped cathode region arranged at the second main surface opposite to the anode regions, a drift region between the plurality of anode regions and the cathode region and a p-doped multiplication layer arranged below the plurality of anode regions and below the pixel insulation regions, wherein an n-doped field reduction layer is arranged below the plurality of anode regions and the pixel insulation regions and above the multiplication layer. a semiconductor substrate that comprises a first main surface and a second main surface which are opposed to each other, a plurality of n-doped anode regions formed at the main surface and separated from each other by pixel insulation regions, a p-doped cathode region arranged at the second main surface opposite to the anode regions, a drift region between the plurality of anode regions and the cathode region and a p-doped multiplication layer arranged below the plurality of anode regions and below the pixel insulation regions, wherein an n-doped field reduction layer is arranged below the plurality of anode regions and the pixel insulation regions and above the multiplication layer.
A method performed by a terminal (202; 600) in a wireless communication system, the method comprising: receiving, from a base station (201; 500), a radio resource control, RRC, message including numerology information for each bandwidth part, BWP, of a plurality of bandwidth parts, BWPs, including a first BWP for transmitting an uplink signal, wherein a first subcarrier spacing for the first BWP is identified based on the numerology information; changing an existing timing advance, TA, command value to a smallest granularity value among M granularity values of the plurality of BWPs; receiving, from the base station (201; 500), first information including a TA command update for adjusting an uplink transmission timing, the first information being received through a medium access control, MAC, control element, CE; determining the uplink transmission timing based on the first information and the changed TA command value; and transmitting, to the base station (201; 500), the uplink signal on the first BWP using the determined uplink transmission timing, wherein the granularity is determined by: 1024 ⋅ 2 − μ T s, where the μ is a numerology index indicating the first subcarrier spacing for a BWP, and the Ts is a sampling duration applied to the wireless communication system having a value of 1 480000 × 4096 seconds. receiving, from a base station (201; 500), a radio resource control, RRC, message including numerology information for each bandwidth part, BWP, of a plurality of bandwidth parts, BWPs, including a first BWP for transmitting an uplink signal, wherein a first subcarrier spacing for the first BWP is identified based on the numerology information; changing an existing timing advance, TA, command value to a smallest granularity value among M granularity values of the plurality of BWPs; receiving, from the base station (201; 500), first information including a TA command update for adjusting an uplink transmission timing, the first information being received through a medium access control, MAC, control element, CE; determining the uplink transmission timing based on the first information and the changed TA command value; and transmitting, to the base station (201; 500), the uplink signal on the first BWP using the determined uplink transmission timing, wherein the granularity is determined by: 1024 ⋅ 2 − μ T s, where the μ is a numerology index indicating the first subcarrier spacing for a BWP, and the Ts is a sampling duration applied to the wireless communication system having a value of 1 480000 × 4096 seconds.
A method for producing a palatable coated dry pet food, comprising at least the step of: a) precooking starting pet food ingredients in a hydrothermal preconditioner, said preconditioner being an elongated vat containing one or two mixing and/or conveying elements consisting of rotating shafts with radial attached paddles, wherein: - steam and water are injected in said preconditioner at a steam:water ratio R1 from 30:70 to 100:0; - said ingredients have a residence time in said preconditioner strictly superior to 5 minutes and inferior to 25 minutes; thereby obtaining a precooked pet food material having a starch gelatinization rate from 70 to 97% by weight; b) extruding the thus obtained precooked pet food material in an extruder which is either single screw or twin screw extruder, wherein said material has a residence time in said extruder ranging from 5 to 60 seconds, thereby obtaining a pet food extrudate having a starch gelatinization rate from 80 to 100% by weight; c) drying said pet food extrudate resulting from step b) in a dryer, thereby obtaining a dry pet food having a moisture level from 3 to 14% by weight; and d) coating said dry pet food, thereby obtaining a palatable coated dry pet food. a) precooking starting pet food ingredients in a hydrothermal preconditioner, said preconditioner being an elongated vat containing one or two mixing and/or conveying elements consisting of rotating shafts with radial attached paddles, wherein: - steam and water are injected in said preconditioner at a steam:water ratio R1 from 30:70 to 100:0; - said ingredients have a residence time in said preconditioner strictly superior to 5 minutes and inferior to 25 minutes; thereby obtaining a precooked pet food material having a starch gelatinization rate from 70 to 97% by weight; - steam and water are injected in said preconditioner at a steam:water ratio R1 from 30:70 to 100:0; - said ingredients have a residence time in said preconditioner strictly superior to 5 minutes and inferior to 25 minutes; b) extruding the thus obtained precooked pet food material in an extruder which is either single screw or twin screw extruder, wherein said material has a residence time in said extruder ranging from 5 to 60 seconds, thereby obtaining a pet food extrudate having a starch gelatinization rate from 80 to 100% by weight; c) drying said pet food extrudate resulting from step b) in a dryer, thereby obtaining a dry pet food having a moisture level from 3 to 14% by weight; and d) coating said dry pet food, thereby obtaining a palatable coated dry pet food.
A compound having the general formula A or I for use as a medicine for the prevention or treatment of a kinetoplastid infection in an animal, mammal or human: wherein - R a is selected from the group consisting of OH, -NR 7 R 8, -NHNR 7 R 8, -NHCH 2 CO 2 H, and -NHCH(CH 3)CO 2 H in its D configuration; R 7 is H and R 8 is selected from the group consisting of H, (C 1-6)alkyl, (C 3-6)cycloalkyl, (C 6-10)aryl, and (C 7-15)aralkyl; or R 7 and R 8 are independently (C 1-6)alkyl; or R 7, R 8 and the nitrogen to which they are attached form a 3- to 6-membered ring; - R 1 is H, methyl, or hydroxymethyl; - R 2 is OH or NR 3 R 4, wherein R 3 and R 4 are independently selected from the group consisting of H; optionally substituted (C 1-5)alkyl; optionally substituted (C 2-5)alkenyl; (C 2-5)alkynyl, wherein the substituent for both the alkyl and alkenyl is a group selected from the group consisting of, carboxy, (C 1-5)alkoxycarbonyl, carbamyl, (C 1-5)alkylcarbamyl, di(C 1-5)alkylcarbamyl, and sulfonyl; (C 1-5)alkanoyl substituted with a group selected from the group consisting of amino, (C 1-5)alkylamino, and di(C 1-5)alkylamino; L-glutamyl; formyl; benzyl; p-tolylsulfonylcarbamyl; -CN; -NO; - R 5 is H or R 5 is represented by the general formula II: wherein represents the point of attachment to the oxygen atom of structural formula I or to the oxygen atom of formula A; wherein R 6 is H or sulfonic acid; and wherein R 9 is H or CH 2 OH; and/or a pharmaceutical acceptable addition salt thereof and/or a stereoisomer thereof and/or a solvate thereof. - R a is selected from the group consisting of OH, -NR 7 R 8, -NHNR 7 R 8, -NHCH 2 CO 2 H, and -NHCH(CH 3)CO 2 H in its D configuration; R 7 is H and R 8 is selected from the group consisting of H, (C 1-6)alkyl, (C 3-6)cycloalkyl, (C 6-10)aryl, and (C 7-15)aralkyl; or R 7 and R 8 are independently (C 1-6)alkyl; or R 7, R 8 and the nitrogen to which they are attached form a 3- to 6-membered ring; - R 1 is H, methyl, or hydroxymethyl; - R 2 is OH or NR 3 R 4, wherein R 3 and R 4 are independently selected from the group consisting of H; optionally substituted (C 1-5)alkyl; optionally substituted (C 2-5)alkenyl; (C 2-5)alkynyl, wherein the substituent for both the alkyl and alkenyl is a group selected from the group consisting of, carboxy, (C 1-5)alkoxycarbonyl, carbamyl, (C 1-5)alkylcarbamyl, di(C 1-5)alkylcarbamyl, and sulfonyl; (C 1-5)alkanoyl substituted with a group selected from the group consisting of amino, (C 1-5)alkylamino, and di(C 1-5)alkylamino; L-glutamyl; formyl; benzyl; p-tolylsulfonylcarbamyl; -CN; -NO; - R 5 is H or R 5 is represented by the general formula II: wherein represents the point of attachment to the oxygen atom of structural formula I or to the oxygen atom of formula A; wherein R 6 is H or sulfonic acid; and wherein R 9 is H or CH 2 OH; wherein represents the point of attachment to the oxygen atom of structural formula I or to the oxygen atom of formula A; wherein R 6 is H or sulfonic acid; and wherein R 9 is H or CH 2 OH;
A lamp (10; 50) comprising: a linearly extending heat sink; plural light emitting diodes (LEDs) mounted on said heat sink along a length of said heat sink; and a light emitting, one-part plastic cover (16; 52) mounted on said heat sink in line with said LEDs, said one-part plastic cover comprising an arcuate first portion (18; 54) opposite said LEDs and two generally flat second portions on either side of said first portion (18; 54), said first portion including a phosphor that is excited by light from said LEDs, wherein said one-part plastic cover (16; 52) encloses said LEDs on said heat sink, and wherein said second portions have an interior surface that is reflective and angled to reflect light from said LEDs to said first portion (18; 54), said heat sink having two angled slots on opposite sides of said LEDs, said angled slots receiving said second portions of said plastic cover (16; 52). a linearly extending heat sink; plural light emitting diodes (LEDs) mounted on said heat sink along a length of said heat sink; and a light emitting, one-part plastic cover (16; 52) mounted on said heat sink in line with said LEDs, said one-part plastic cover comprising an arcuate first portion (18; 54) opposite said LEDs and two generally flat second portions on either side of said first portion (18; 54), said first portion including a phosphor that is excited by light from said LEDs, wherein said one-part plastic cover (16; 52) encloses said LEDs on said heat sink, and wherein said second portions have an interior surface that is reflective and angled to reflect light from said LEDs to said first portion (18; 54), said heat sink having two angled slots on opposite sides of said LEDs, said angled slots receiving said second portions of said plastic cover (16; 52).
A method of controlled access to content, comprising - a first device joining an access sharing network (100, 200), - the first device obtaining a content item from the access sharing network (100, 200) which content item requires access control data to enable playback, - the first device obtaining the access control data from a second device in the access sharing network (100, 200), characterised in that the method further comprising: - the first device determining whether the second device is still a member of the access network (100, 200) and - the first device enabling playback of the content item in accordance with the access control data upon a positive determination that said second device is still a member of said access sharing network (100, 200). - a first device joining an access sharing network (100, 200), - the first device obtaining a content item from the access sharing network (100, 200) which content item requires access control data to enable playback, - the first device obtaining the access control data from a second device in the access sharing network (100, 200), - the first device determining whether the second device is still a member of the access network (100, 200) and - the first device enabling playback of the content item in accordance with the access control data upon a positive determination that said second device is still a member of said access sharing network (100, 200).
A fluid pump comprising: a hollow housing; an electric motor having an armature with a commutator, said electric motor being rotatable about a motor axis with application of an electric current to said commutator; a pump section rotationally coupled to said electric motor for receiving fuel at a relatively low pressure through a fuel inlet and pressurizing said fuel to a relatively high pressure; a motor brush (86, 98) in electrical contact with said commutator and having a shunt wire (90, 102) extending therefrom; and an end cap closing one end of said housing and defining a high pressure chamber with said housing which is occupied by said fuel at said relatively high pressure; wherein said end cap comprises: a hollow brush tower extending therefrom and defining a brush holder (84, 96) slidably receiving said motor brush therein, said brush holder defining in part said high pressure chamber; characterized in that said end cap comprises an aperture (92, 104) with said shunt wire extending therethrough to allow said shunt wire (90, 102) to exit said end cap and extend outside the end cap, wherein said shunt wire is sealed with said aperture to substantially prevent said fuel from passing through said aperture and; wherein said aperture (92, 104) is in said brush tower. a hollow housing; an electric motor having an armature with a commutator, said electric motor being rotatable about a motor axis with application of an electric current to said commutator; a pump section rotationally coupled to said electric motor for receiving fuel at a relatively low pressure through a fuel inlet and pressurizing said fuel to a relatively high pressure; a motor brush (86, 98) in electrical contact with said commutator and having a shunt wire (90, 102) extending therefrom; and an end cap closing one end of said housing and defining a high pressure chamber with said housing which is occupied by said fuel at said relatively high pressure; wherein said end cap comprises: a hollow brush tower extending therefrom and defining a brush holder (84, 96) slidably receiving said motor brush therein, said brush holder defining in part said high pressure chamber; characterized in that said end cap comprises an aperture (92, 104) with said shunt wire extending therethrough to allow said shunt wire (90, 102) to exit said end cap and extend outside the end cap, wherein said shunt wire is sealed with said aperture to substantially prevent said fuel from passing through said aperture and; wherein said aperture (92, 104) is in said brush tower.
A lumbar support assembly, comprising: a suspension mat having a first hole formed at an inner side thereof, and having a second hole formed at one edge thereof; an air bladder having a first clip hole, which is formed at one edge thereof and overlaps with the first hole; a pouch including a pump and having a second clip hole, which is formed at one edge thereof and overlaps with the second hole; a fixing clip mounted in the first clip hole or the second clip hole; and an electronic valve having a first tube connected to the air bladder and a second tube connected to the pump, the electronic valve being coupled to a rear surface of the suspension mat. a suspension mat having a first hole formed at an inner side thereof, and having a second hole formed at one edge thereof; an air bladder having a first clip hole, which is formed at one edge thereof and overlaps with the first hole; a pouch including a pump and having a second clip hole, which is formed at one edge thereof and overlaps with the second hole; a fixing clip mounted in the first clip hole or the second clip hole; and an electronic valve having a first tube connected to the air bladder and a second tube connected to the pump, the electronic valve being coupled to a rear surface of the suspension mat.
A process for forming projections on a substrate comprising: providing a mold (15, 42, 56) having an outer surface; providing a substrate material (11, 21, 52) having a surface; providing a device (13, 20, 40, 54) as a source of vibration energy; wherein one or both of said mold (15, 42, 56) and device (13, 20, 40, 54) contain a plurality of cavities, said cavities having a shape; positioning said substrate material (11, 21, 52) between said mold (15, 42, 56) and said device (13, 20, 40, 54); applying power to said device (13, 20, 40, 54) to soften the material with vibration energy, wherein a portion of said substrate material (11, 21, 52) enters said cavities in said mold (15, 42, 56) and/or device (13, 20, 40, 54) surface; and forming projections on at least a portion of said surface of said substrate material (11, 21, 52), wherein said cavities are shaped to form projections which are shaped as one or more of hooks, mushrooms, angled pins, curved pins, grappling hook, multi-limbed, cross-shaped, Y-shaped and multi-lobed, each having cross-sections which are round, oval, square, rectangular, trapezoidal, solid, hollow and combinations thereof. providing a mold (15, 42, 56) having an outer surface; providing a substrate material (11, 21, 52) having a surface; providing a device (13, 20, 40, 54) as a source of vibration energy; wherein one or both of said mold (15, 42, 56) and device (13, 20, 40, 54) contain a plurality of cavities, said cavities having a shape; positioning said substrate material (11, 21, 52) between said mold (15, 42, 56) and said device (13, 20, 40, 54); applying power to said device (13, 20, 40, 54) to soften the material with vibration energy, wherein a portion of said substrate material (11, 21, 52) enters said cavities in said mold (15, 42, 56) and/or device (13, 20, 40, 54) surface; and forming projections on at least a portion of said surface of said substrate material (11, 21, 52), wherein said cavities are shaped to form projections which are shaped as one or more of hooks, mushrooms, angled pins, curved pins, grappling hook, multi-limbed, cross-shaped, Y-shaped and multi-lobed, each having cross-sections which are round, oval, square, rectangular, trapezoidal, solid, hollow and combinations thereof.