mhurhangee/ep-ind-claims huggingface dataset:
An analysis device comprising: an electron detection medium for obtaining information needed for analyzing an analyte in correlation with an electron transfer level; and a reagent part which is disposed on the electron detection medium and comprises an oxidoreductase for transferring an electron to or from the analyte, and an electron transporting substance for transporting electrons between the oxidoreductase and the electron detection medium, the electron transporting substance being 4-aminomethyl pyridine or 5-amino-4-imidazolecarboxamide. an electron detection medium for obtaining information needed for analyzing an analyte in correlation with an electron transfer level; and a reagent part which is disposed on the electron detection medium and comprises an oxidoreductase for transferring an electron to or from the analyte, and an electron transporting substance for transporting electrons between the oxidoreductase and the electron detection medium, an oxidoreductase for transferring an electron to or from the analyte, and an electron transporting substance for transporting electrons between the oxidoreductase and the electron detection medium, the electron transporting substance being 4-aminomethyl pyridine or 5-amino-4-imidazolecarboxamide.
A device implantable under skin, comprising: a sealed housing containing electronics for at least stimulation or collection of data and at least one antenna for communicating with an external device; a magnet configured to hold said external device in proximity to the sealed housing, wherein the sealed housing includes an upper cover being closest to the skin when the device is implanted, and a lower cover that is hermetically connected to the upper cover, the lower cover includes an elevated region, a recessed region, and at least one feedthrough element (204, 205, 209) formed in the recessed region of the lower cover, and wherein the upper cover comprises a U-shaped main body, characterized in that: an inside of the U-shaped main body and an inside surface of the elevated region forming a voluminous area there between configured to allow integration of components. a sealed housing containing electronics for at least stimulation or collection of data and at least one antenna for communicating with an external device; a magnet configured to hold said external device in proximity to the sealed housing, wherein the sealed housing includes an upper cover being closest to the skin when the device is implanted, and a lower cover that is hermetically connected to the upper cover, the lower cover includes an elevated region, a recessed region, and at least one feedthrough element (204, 205, 209) formed in the recessed region of the lower cover, and wherein the upper cover comprises a U-shaped main body, characterized in that: an inside of the U-shaped main body and an inside surface of the elevated region forming a voluminous area there between configured to allow integration of components. an upper cover being closest to the skin when the device is implanted, and a lower cover that is hermetically connected to the upper cover, the lower cover includes an elevated region, a recessed region, and at least one feedthrough element (204, 205, 209) formed in the recessed region of the lower cover, and wherein the upper cover comprises a U-shaped main body, characterized in that: an inside of the U-shaped main body and an inside surface of the elevated region forming a voluminous area there between configured to allow integration of components. an elevated region, a recessed region, and at least one feedthrough element (204, 205, 209) formed in the recessed region of the lower cover, and wherein the upper cover comprises a U-shaped main body, characterized in that: an inside of the U-shaped main body and an inside surface of the elevated region forming a voluminous area there between configured to allow integration of components.
Method for applying a seal to a workpiece, in particular to a vehicle body part, wherein the seal by means of an application head is continuously guided toward the workpiece and is pressed onto the workpiece, while the application head and the workpiece are moved relative to one another, characterized in that the seal, when being guided toward the workpiece, by means of guide rollers is guided in a free loop that functions as a seal buffer, said guide rollers being downstream of the loop, wherein the guide rollers along the transportation direction of the seal have a free-wheeling motion in the direction of the workpiece.
A method of converting carbon dioxide, comprising: forming an aqueous reaction mixture in a mixing chamber, including providing carbon dioxide and providing an aqueous reaction solution comprising a reactant; and subjecting the aqueous reaction mixture to a high energy electron beam positioned so as to irradiate the aqueous reaction mixture in a reaction chamber in the form of coiled tubes or pipes, wherein the high energy electron beam initiates a reaction between carbon dioxide and the reactant to produce a reaction product. forming an aqueous reaction mixture in a mixing chamber, including providing carbon dioxide and providing an aqueous reaction solution comprising a reactant; and subjecting the aqueous reaction mixture to a high energy electron beam positioned so as to irradiate the aqueous reaction mixture in a reaction chamber in the form of coiled tubes or pipes, wherein the high energy electron beam initiates a reaction between carbon dioxide and the reactant to produce a reaction product.
A charge air duct for an internal combustion engine, comprising a housing which has at least one inlet and at least one outlet for charge air, wherein a heat exchanger (6, 8) for cooling the charge air is disposed in the housing, wherein a bypass for at least partially circumventing the heat exchanger (6, 8) is disposed on the housing, wherein a control element for influencing the charge air flow is disposed on the housing, wherein in a first position of the control element, the charge air is routed from the inlet to the heat exchanger (6, 8), and wherein in a second position of the control element, the charge air is routed from the inlet to the bypass, characterized in that in a third position, the control element forms an at least partial reduction of a passage cross-section for the charge air, in that the control element is disposed in a notably substantially cylindrical duct, wherein the charge air flow is notably diverted by approximately 90o in the region of the duct and in that the control element is designed as a roller that can be rotated about an axis.
A method for forwarding uplink packets during an S1 handover in a long term evolution, LTE, system, characterized in comprising: receiving, by a target evolved NodeB, eNodeB, a control message from a source eNodeB through a source mobility management entity, MME and a target MME, wherein the control message comprises a packet data convergence protocol serial number, PDCP SN, of a uplink packet failed to be received by the source eNodeB and an initial PDCP SN of a packet required to be sent sequentially; sending, by the target eNodeB, packet state report information to the UE, wherein the packet state report information comprises the PDCP SN of the uplink packet failed to be received by the source eNodeB and the initial PDCP SN of the packet required to be sent sequentially; and receiving, by the target eNodeB, the uplink packets that are sent by the UE according to the PDCP SN of the uplink packet failed to be received by the source eNodeB and the initial PDCP SN of the packet required to be sent sequentially. receiving, by a target evolved NodeB, eNodeB, a control message from a source eNodeB through a source mobility management entity, MME and a target MME, wherein the control message comprises a packet data convergence protocol serial number, PDCP SN, of a uplink packet failed to be received by the source eNodeB and an initial PDCP SN of a packet required to be sent sequentially; sending, by the target eNodeB, packet state report information to the UE, wherein the packet state report information comprises the PDCP SN of the uplink packet failed to be received by the source eNodeB and the initial PDCP SN of the packet required to be sent sequentially; and receiving, by the target eNodeB, the uplink packets that are sent by the UE according to the PDCP SN of the uplink packet failed to be received by the source eNodeB and the initial PDCP SN of the packet required to be sent sequentially.
A method of manufacturing a tubular medical implant, comprising the steps of: forming a hollow first tube having a first diameter and a first plurality of pores formed thereon; forming a hollow second tube having a second unstretched diameter and a second plurality of pores formed thereon, said second unstretched diameter being greater than said first diameter; sliding at least a portion of said first tube within said second tube to create an overlapped area of said first tube and said second tube; and bonding said first tube to said second tube in said overlapped area. characterized by the following features: there is provided a tube-shaped barrier which is not porous for preventing ingrowth of tissues into porous tubes and, wherein the porous tubes and are placed inside the barrier. forming a hollow first tube having a first diameter and a first plurality of pores formed thereon; forming a hollow second tube having a second unstretched diameter and a second plurality of pores formed thereon, said second unstretched diameter being greater than said first diameter; sliding at least a portion of said first tube within said second tube to create an overlapped area of said first tube and said second tube; and bonding said first tube to said second tube in said overlapped area. characterized by the following features: there is provided a tube-shaped barrier which is not porous for preventing ingrowth of tissues into porous tubes and, wherein the porous tubes and are placed inside the barrier.
Multi chamber gas filled building panel comprising at least of essentially plan parallel plates such as outer and inner plates, of spacers between chambers, of at least one insulation gas filled chamber said multi chamber gas filled building panel further comprised of at least one air filled chamber said air filled chamber on at least one side divided by gas-impermeable divider, and further that the air filled chamber features at least one opening characterized in that there are at least two adjacent insulation gas filled chambers divided by a divider or plurality thereof and whereby the opening or openings allow for pressure equalization in order to enable inner volumetric expansion and contraction of the insulation gas.
A mobile terminal, comprising: a mobile communication unit configured to transmit and receive a radio signal over a communication network; a display unit configured to display visual information processed in the mobile terminal; an input unit configured to receive a user input; at least one sensor configured to detect user's gaze information; an execution controller configured to execute screen lock when detecting a lack of the user input for a first predetermined delay time T1; and a change controller configured to change the first predetermined delay time T1 based on the user's gaze information, wherein the change controller is configured to determine whether the user stares at the display unit based on the user's gaze information, and wherein the change controller is further configured to extend the first predetermined delay time T1 to a second delay time T2 when the change controller determines that the user stares at the display unit based on the user's gaze information to delay execution of screen lock and to reduce the first predetermined delay time T1 to a third delay time T3 when the change controller determines that the user does not stare at the display unit based on the user's gaze information to advance execution of screen lock. a mobile communication unit configured to transmit and receive a radio signal over a communication network; a display unit configured to display visual information processed in the mobile terminal; an input unit configured to receive a user input; at least one sensor configured to detect user's gaze information; an execution controller configured to execute screen lock when detecting a lack of the user input for a first predetermined delay time T1; and a change controller configured to change the first predetermined delay time T1 based on the user's gaze information, wherein the change controller is configured to determine whether the user stares at the display unit based on the user's gaze information, and wherein the change controller is further configured to extend the first predetermined delay time T1 to a second delay time T2 when the change controller determines that the user stares at the display unit based on the user's gaze information to delay execution of screen lock and to reduce the first predetermined delay time T1 to a third delay time T3 when the change controller determines that the user does not stare at the display unit based on the user's gaze information to advance execution of screen lock.
A fixing device (6, 135) comprising two rotation members (26, 27) forming a nip and a separation member (36, 101) on a downstream side of the nip with respect to a conveyance direction of a conveyance object, the separation member (36, 101) for separating the conveyance object from the two rotation members (26, 27), the conveyance object having been sent out from the nip that is formed by the two rotation members (26, 27) that are in contact with one another, the separation member (36, 101) comprising a separation member body (36a, 110), which is a single flat member having a length greater than or equal to a length of the maximum image area of the conveyance object in a width direction of the conveyance object; characterized by a tape member (36b, 111) adhered to a surface of an extending end of the separation member body (36a, 110) directed toward the nip, the tape member (36b, 111) having slidability higher than slidability of the separation member body (36a, 110), wherein the tape member (36b, 111) comprises a wavy part directed toward the nip and inclined from a normal to a center line, that connects the centers of rotation of the two rotation members (26, 27), at a predetermined angle, the wavy part covers a contact zone where the conveyance object can come into contact with the separation member (36, 101) along the conveyance direction and along the width direction of the conveyance object, and the wavy part has a plurality of depressions parallel to each other and extending in a direction inclined from the conveyance direction and inclined from the width direction, at least two of the depressions overlapping along the conveyance direction.
Process for preparing lactamates by reacting at least one alkoxide with at least one lactam, characterized in that a reaction mixture comprising at least one alkoxide and at least one lactam is subjected to a reactive distillation on a thin-film evaporator, wherein the following process steps are run: (a) providing at least one alcoholic alkoxide solution; (b) providing at least one lactam; (c) introducing the at least one lactam into the alcoholic alkoxide solution to obtain a reactant mixture; (d) homogenizing the reaction mixture obtained in process step (c) at a temperature of 30-70°C which is selected such that there is essentially no reaction of the lactam with the alkoxide, to obtain a homogenized reactant mixture; (e) feeding the homogenized reactant mixture into a thin-film evaporator, preferably via the top of the thin-film evaporator; (f) reactively distilling the reactant mixture fed in, optionally with simultaneous stripping of the reactant mixture in countercurrent; and (g) obtaining the lactamate at the bottom of the thin-film evaporator. (a) providing at least one alcoholic alkoxide solution; (b) providing at least one lactam; (c) introducing the at least one lactam into the alcoholic alkoxide solution to obtain a reactant mixture; (d) homogenizing the reaction mixture obtained in process step (c) at a temperature of 30-70°C which is selected such that there is essentially no reaction of the lactam with the alkoxide, to obtain a homogenized reactant mixture; (e) feeding the homogenized reactant mixture into a thin-film evaporator, preferably via the top of the thin-film evaporator; (f) reactively distilling the reactant mixture fed in, optionally with simultaneous stripping of the reactant mixture in countercurrent; and (g) obtaining the lactamate at the bottom of the thin-film evaporator.
A pneumatic tire having a half-radial structure in which carcass cords are biased with respect to a radial direction of the tire and have an angle of 55 to 85° with respect to a circumferential direction of the tire as measured at a central position along a widthwise direction of a tread, wherein the carcass cords have a twist coefficient α of 1,500 to 2,500, the twist coefficient α being N × √T, N being the number of twists per 10 cm of length in the fiber cords, and T being a fineness, dtex, of the fiber cords, wherein a difference in intermediate elongation at 2.0 cN/dtex in the carcass cords between a central section and side sections of the tire is not more than 1.0%, characterized in that the carcass cords have an elastic modulus of 3 to 10 GPa. a half-radial structure in which carcass cords are biased with respect to a radial direction of the tire and have an angle of 55 to 85° with respect to a circumferential direction of the tire as measured at a central position along a widthwise direction of a tread, wherein the carcass cords have a twist coefficient α of 1,500 to 2,500, the twist coefficient α being N × √T, N being the number of twists per 10 cm of length in the fiber cords, and T being a fineness, dtex, of the fiber cords, wherein a difference in intermediate elongation at 2.0 cN/dtex in the carcass cords between a central section and side sections of the tire is not more than 1.0%, characterized in that the carcass cords have an elastic modulus of 3 to 10 GPa.
A method of forming a container from a plastic preform while using a liquid as a blow medium, the method comprising the steps of: lowering a forming head to form a sealed engagement between the forming head and a neck of the preform; injecting the liquid into the preform from the forming head, the liquid causing the preform to be formed into the container; stopping the injecting of liquid after forming of the container; disengaging the forming head from the neck of the container; characterized in that the method comprises, after forming of the container, withdrawing a portion of the liquid to relieve pressure within the container to about ambient pressure prior to disengaging of the forming head from the neck of the container, whereby splashing and spillage of liquid from the neck of the container is eliminated when the forming head is disengaged from the neck of container. lowering a forming head to form a sealed engagement between the forming head and a neck of the preform; injecting the liquid into the preform from the forming head, the liquid causing the preform to be formed into the container; stopping the injecting of liquid after forming of the container; disengaging the forming head from the neck of the container; characterized in that the method comprises, after forming of the container, withdrawing a portion of the liquid to relieve pressure within the container to about ambient pressure prior to disengaging of the forming head from the neck of the container, whereby splashing and spillage of liquid from the neck of the container is eliminated when the forming head is disengaged from the neck of container.
A compound which is a 5-(5-(2-(3-aminopropoxy)-6-methoxyphenyl)-1H-pyrazol-3-ylamino)pyrazine-2-carbonitrile methanesulfonic acid monohydrate, for use in the treatment of cancer selected from the group consisting of neuroblastoma, rhabdomyosarcoma, osteosarcoma, Ewing's sarcoma, desmoplastic small round cell tumor, and leiomyosarcoma.
A sample identification information obtaining apparatus comprising: a barcode reader (B31; C31; D31) for reading a barcode adhered to the sample container by irradiating a side surface of the sample container with light; a rotating section (B11, B21; C11, C21; D11, D21) for rotating the sample container relative to the barcode reader so that a position at which the reading is performed by the barcode reader moves in a circumferential direction of the sample container; and a controller which executes operations, the operations comprising: controlling the rotating section and the barcode reader so that the barcode reader repeatedly reads the barcode over the range of a predetermined rotation angle; and obtaining identification information of the sample contained in the sample container on the basis of reading results obtained as a result of the repeated reading of the barcode by the barcode reader, characterized in that the controller obtains the identification information of the sample contained in the sample container on the basis of one reading result which occupies a predetermined ratio among the plurality of reading results. a barcode reader (B31; C31; D31) for reading a barcode adhered to the sample container by irradiating a side surface of the sample container with light; a rotating section (B11, B21; C11, C21; D11, D21) for rotating the sample container relative to the barcode reader so that a position at which the reading is performed by the barcode reader moves in a circumferential direction of the sample container; and a controller which executes operations, the operations comprising: controlling the rotating section and the barcode reader so that the barcode reader repeatedly reads the barcode over the range of a predetermined rotation angle; and obtaining identification information of the sample contained in the sample container on the basis of reading results obtained as a result of the repeated reading of the barcode by the barcode reader, characterized in that the controller obtains the identification information of the sample contained in the sample container on the basis of one reading result which occupies a predetermined ratio among the plurality of reading results. controlling the rotating section and the barcode reader so that the barcode reader repeatedly reads the barcode over the range of a predetermined rotation angle; and obtaining identification information of the sample contained in the sample container on the basis of reading results obtained as a result of the repeated reading of the barcode by the barcode reader, characterized in that the controller obtains the identification information of the sample contained in the sample container on the basis of one reading result which occupies a predetermined ratio among the plurality of reading results.