mhurhangee/ep-ind-claims huggingface dataset:
A cell balancing method for a high-voltage battery pack, comprising steps of: a) measuring an electromotive force of each cell composing the battery pack; b) selecting the cell to be balanced based on the electromotive force of the each cell; c) computing a total amount of charges used for balancing of the cell to be balanced; d) obtaining an accumulative amount of charges by accumulating an amount of current consumed for the balancing while performing the balancing of the cell to be balanced; and e) completing the balancing of the cell to be balanced when the accumulative amount of charges equals the total amount of charges, characterized in that step a) measuring an electromotive force of each cell includes measuring a terminal voltage of each cell measured in a low current state in which the current of the battery pack is less than a threshold amount of current maintained for a prescribed time to use the measured terminal voltage of each cell as the electromotive force of each cell. a) measuring an electromotive force of each cell composing the battery pack; b) selecting the cell to be balanced based on the electromotive force of the each cell; c) computing a total amount of charges used for balancing of the cell to be balanced; d) obtaining an accumulative amount of charges by accumulating an amount of current consumed for the balancing while performing the balancing of the cell to be balanced; and e) completing the balancing of the cell to be balanced when the accumulative amount of charges equals the total amount of charges, characterized in that step a) measuring an electromotive force of each cell includes measuring a terminal voltage of each cell measured in a low current state in which the current of the battery pack is less than a threshold amount of current maintained for a prescribed time to use the measured terminal voltage of each cell as the electromotive force of each cell.
A water-in-oil emulsion comprising less than 45% water, and wherein said emulsion comprises an oil phase and a water phase, and wherein the water phase comprises a dipeptide selected from the group consisting of acetyl dipeptide 1 cetyl ester, acetyl dipeptide 3 aminohexanoate, azelaoyl bisdipeptide 10, coumaroyl dipeptide 3, dicetyl dipeptide 9, dipeptide diamino butyroyl benzylamide diacetate, dipeptide 1, dipeptide 10, dipeptide 11, dipeptide 12, dipeptide 15, dipeptide 16, dipeptide 17, dipeptide 18, dipeptide 19, dipeptide 2, dipeptide 20, dipeptide 3, dipeptide 4, dipeptide 5, dipeptide 6, dipeptide 7, dipeptide 8, dipeptide 8 HCL, dipeptide 9, hexanoyl dipeptide 3 norleucine acetate, methyl undecylenoyl dipeptide 16, nicotinoyl dipeptide 22, nicotinoyl dipeptide 23, nicotinoyl dipeptide 24, nicotinoyl dipeptide 26, oleoyl dipeptide 15, palmitoyl dipeptide 10, palmitoyl dipeptide 13, palmitoyl dipeptide17, palmitoyl dipeptide 5 diaminobutyroyl hydroxythreonine, palmitoyl dipeptide 5 diaminohydroxybutyrate, palmitoyl dipeptide 7 and mixtures thereof, and a further peptide selected from the group consisting of tripeptide, tetrapeptide, pentapeptide and mixtures thereof.
Detector for ionizing radiation, which is a telescopic detector with at least two detector stages, comprising a monolithic body formed by a multilayer planar structure which comprises: - an upper face comprising an active area of the detector and a lower face, opposite to the upper face in a vertical direction (Z-Z) of thickness of the detector; - a substrate consisting of SiC, preferably SiC-4H or SiC-6H, adjacent to the lower face in the vertical direction (Z-Z); - a first n- or p - type epitaxial layer (120, 420), arranged between the substrate and the upper face and having a thickness of between 10 and 100 μm, with a dopant concentration of the order of 5-8·10 13 /cm 3; - a second p + or n + type epitaxial layer (130, 430), arranged on top of the first layer and having a thickness smaller than that of the first layer, in particular of between 0.2 and 1 μm, with a dopant concentration of the order of 10 18 - 10 19 /cm 3; - a third n- or p - type epitaxial layer (140, 440), arranged on the second layer and having a thickness of between 2 and 10 μm and dopant concentration of the order of 5-8·10 13 /cm 3; and - a fourth n + or p + type epitaxial layer (150, 450), with a thickness of 0.1 to 1 μm, preferably 0.2 to 1 μm, and dopant concentration of the order of 10 18 /cm 3, the top surface of which forms the active area of the detector, the multilayer planar structure resulting in at least one first stage of the detector defined between a cathode and an anode and comprising at least the fourth epitaxial layer (150, 450), the third epitaxial layer (140, 440) and the second epitaxial layer (130, 430) arranged so as to form a n-p or p-n junction, and a second detector stage arranged in sequence with the first detector stage in the vertical direction (Z-Z), defined between a cathode and an anode and comprising at least the second epitaxial layer (130, 430), the first epitaxial layer (120, 420) and the SiC substrate arranged so as to form an p-n or n-p junction. - an upper face comprising an active area of the detector and a lower face, opposite to the upper face in a vertical direction (Z-Z) of thickness of the detector; - a substrate consisting of SiC, preferably SiC-4H or SiC-6H, adjacent to the lower face in the vertical direction (Z-Z); - a first n- or p - type epitaxial layer (120, 420), arranged between the substrate and the upper face and having a thickness of between 10 and 100 μm, with a dopant concentration of the order of 5-8·10 13 /cm 3; - a second p + or n + type epitaxial layer (130, 430), arranged on top of the first layer and having a thickness smaller than that of the first layer, in particular of between 0.2 and 1 μm, with a dopant concentration of the order of 10 18 - 10 19 /cm 3; - a third n- or p - type epitaxial layer (140, 440), arranged on the second layer and having a thickness of between 2 and 10 μm and dopant concentration of the order of 5-8·10 13 /cm 3; and - a fourth n + or p + type epitaxial layer (150, 450), with a thickness of 0.1 to 1 μm, preferably 0.2 to 1 μm, and dopant concentration of the order of 10 18 /cm 3, the top surface of which forms the active area of the detector,
A method for providing backup communication over an Ethernet cable, comprising: receiving, at a backup communication system, BCS, module coupled between a Power over Eternet, PoE/Switch and a monitoring device, a sync pulse indicating a failure of a TCP/IP gateway coupled, via the PoE/Switch, between a call device, and the monitoring device; receiving, at the BCS module, a first call signal from the call device; and transmitting, from the BCS module, responsive to receiving the first call signal when the sync pulse indicates the failure, a second call signal to the monitoring device; wherein the first call signal is transmitted on a power carrying wire of an Ethernet cable by coupling pulse-coded signals to the Ethernet cable, and wherein said second call signal is transmitted on a signal wire. receiving, at a backup communication system, BCS, module coupled between a Power over Eternet, PoE/Switch and a monitoring device, a sync pulse indicating a failure of a TCP/IP gateway coupled, via the PoE/Switch, between a call device, and the monitoring device; receiving, at the BCS module, a first call signal from the call device; and transmitting, from the BCS module, responsive to receiving the first call signal when the sync pulse indicates the failure, a second call signal to the monitoring device; wherein the first call signal is transmitted on a power carrying wire of an Ethernet cable by coupling pulse-coded signals to the Ethernet cable, and wherein said second call signal is transmitted on a signal wire.
A piperlongumine compound encapsulated in a hydrogel for use as a post-surgical implant in a method of treating cancer characterized by transient receptor potential vanilloid 2 channel (TRPV2) expression comprising; administering the encapsulated piperlongumine compound to a patient in need thereof, wherein the piperlongumine compound is a reversible antagonist of TRPV2 and has the formula 1: where Q 1 is O or S, - Ar is an optionally substituted phenyl group, - D- is selected from -C -, -C -, -CH - and -CH -, and - R 1 and -R 2, together with -N-D- to which they are attached, form an optionally substituted heterocyclic ring, or -R 1 and -R 2 are each independently selected from hydrogen and optionally substituted alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclyl and aryl, and salts and solvates thereof; and wherein the cancer is glioblastoma. administering the encapsulated piperlongumine compound to a patient in need thereof, wherein the piperlongumine compound is a reversible antagonist of TRPV2 and has the formula 1: where Q 1 is O or S, - Ar is an optionally substituted phenyl group, - D- is selected from -C -, -C -, -CH - and -CH -, and - R 1 and -R 2, together with -N-D- to which they are attached, form an optionally substituted heterocyclic ring, or -R 1 and -R 2 are each independently selected from hydrogen and optionally substituted alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclyl and aryl, - Ar is an optionally substituted phenyl group, - D- is selected from -C -, -C -, -CH - and -CH -, and - R 1 and -R 2, together with -N-D- to which they are attached, form an optionally substituted heterocyclic ring, or -R 1 and -R 2 are each independently selected from hydrogen and optionally substituted alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclyl and aryl, and salts and solvates thereof; and wherein the cancer is glioblastoma.
An organic electronic component having a matrix, characterized in that the matrix contains, as p-dopant, a main group metal complex of groups 13 to 15 which in turn contains at least one ligand L of the following structure: where R 1 and R 2 may each independently be oxygen, sulfur, selenium, NH or NR 4 where R 4 is selected from the group comprising alkyl and aryl and may be bonded to R 3; and R 3 is selected from the group comprising alkyl, long-chain alkyl, alkoxy, long-chain alkoxy, cycloalkyl, haloalkyl, aryl, arylenes, haloaryl, heteroaryl, heteroarylenes, heterocycloalkylenes, heterocycloalkyl, haloheteroaryl, alkenyl, haloalkenyl, alkynyl, haloalkynyl, ketoaryl, haloketoaryl, ketoheteroaryl, ketoalkyl, haloketoalkyl, ketoalkenyl, haloketoalkenyl, where one or more non-adjacent CH 2 groups in suitable radicals may independently be replaced by -O-, -S-, -NH-, -CO-, -COO-, -OCO-, -OCO-O-, -SO 2 -, -S-CO-, -CO-S-, -CY1=CY2 or -C≡C-, in such a way that no oxygen and/or sulfur atoms are bonded directly to one another, and are likewise optionally replaced by aryl or heteroaryl preferably containing 1 to 30 carbon atoms (terminal CH 3 groups are regarded as CH 2 groups in the sense of CH 2 -H).
A method for producing three-dimensional components, wherein amorphous particulate material is applied layer by layer in a receiving plane onto a construction field, wherein particulate material is placed in front of a coating knife device on a construction field and then spread, and subsequently the particulate material is selectively solidified, characterized in that a measurement of an excess quantity of particulate material is carried out, wherein the excess quantity is the amount of particulate material which is pushed forward in front of the coater during the coating pass at the end of the construction field.
A method for inspecting containers and/or preforms, including the steps: a) providing a scattering medium in the interior of the containers or preforms; b) irradiating the scattering medium in such a way that the scattering medium forms a bright field behind a wall area (2a-2c) of the container or preform to be imaged; and c) imaging the wall area, characterized in that the scattering medium in step c) is present essentially in gaseous form. a) providing a scattering medium in the interior of the containers or preforms; b) irradiating the scattering medium in such a way that the scattering medium forms a bright field behind a wall area (2a-2c) of the container or preform to be imaged; and c) imaging the wall area,
A control unit for ground bearing capacity analysis; wherein the control unit is configured to: determine a shape of a terrain segment ahead of a vehicle, based on sensor measurements obtained from a sensor mounted in or on the vehicle; predict a distance between the sensor of the vehicle and the ground at the terrain segment based on the determined shape of the terrain segment ahead of the vehicle, wherein the predicted distance represents a distance that would occur if the vehicle drove on top of the determined shape; and to: when the vehicle has moved into the terrain segment: obtain, from the sensor, a measure of the distance between the sensor of the vehicle and the ground; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground. determine a shape of a terrain segment ahead of a vehicle, based on sensor measurements obtained from a sensor mounted in or on the vehicle; predict a distance between the sensor of the vehicle and the ground at the terrain segment based on the determined shape of the terrain segment ahead of the vehicle, wherein the predicted distance represents a distance that would occur if the vehicle drove on top of the determined shape; and to: when the vehicle has moved into the terrain segment: obtain, from the sensor, a measure of the distance between the sensor of the vehicle and the ground; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground. obtain, from the sensor, a measure of the distance between the sensor of the vehicle and the ground; and determine that the terrain segment is to be avoided due to insufficient bearing capacity when the predicted distance between the sensor and the ground exceeds the measured distance between the sensor and the ground.
Impeller for an axial fan, having an impeller body, which has an outer impeller shell and a carrier disc having a hub for connection for conjoint rotation to a drive shaft, wherein a multiplicity of radially outward-pointing blades, which each have a blade root and a vane, is arranged on the carrier disc, characterized in that each blade root has a fastening portion, which is accommodated with positive engagement between two fastening segments (28, 44) each arranged opposite one another on both sides of the carrier disc, and the in each case two opposite fastening segments (28, 44) and the carrier disc each have at least two through-holes (58, 60) for accommodating sleeves (46, 48, 50, 52), and the fastening portion can be clamped firmly between in each case two opposite fastening segments (28, 44) with the aid of screw bolts (30, 32, 34, 36), in each case inserted through the sleeves (46, 48, 50, 52), and nuts (40, 42), wherein each blade root is guided in a respective recess of the carrier disc, wherein the sleeves (46, 48, 50, 52) each have a collar (70, 72, 74, 76) at one end and furthermore a shank and the shank is accommodated positively, at least in some region or regions, in in each case one of the through-holes (58, 60) in the fastening segments (28, 44).
Plasma device for treating surfaces, in particular in the case of textiles, wherein the plasma device has a housing with a lower shell and an upper shell pivotably mounted thereon, wherein a seat for an electrical energy storage system is provided in the upper shell and wherein a plasma source and an electronic device connected thereto with electrical contact elements (9a, 9b) are arranged in the lower shell, which when the housing is closed are electrically conductively connected to the energy storage system and as a result connect this electrically conductively to the electronic device, characterised in that as from an angle of opening α of the upper shell relative to the lower shell of α ≥ 5° the energy storage system is decoupled at least from one contact element (9a, 9b).
Drive shaft module for a material conveyor system of a construction machine, comprising: a drive shaft, characterized in that only one mounting having a bearing arm is adapted to support the drive shaft at a first bearing location,and that the drive shaft comprises different segments (7a, 7b, 7c, 7d) which are joined by friction welding, and that the mounting is connected to the drive shaft such that the entire drive shaft module, comprising the drive shaft and the mounting, may be detachably fixed, in a preassembled state, in or at the construction machine. a drive shaft, characterized in that only one mounting having a bearing arm is adapted to support the drive shaft at a first bearing location,and that the drive shaft comprises different segments (7a, 7b, 7c, 7d) which are joined by friction welding, and that the mounting is connected to the drive shaft such that the entire drive shaft module, comprising the drive shaft and the mounting, may be detachably fixed, in a preassembled state, in or at the construction machine.
An x-ray breast imaging system comprising: a breast immobilizer configured to immobilize a patient's breast; an x-ray source and an x-ray imaging receptor configured to image the breast in a mode in which the receptor obtains respective two-dimensional projection tomosynthesis x-ray images ETp1 in the course of a first trajectory of the source around the immobilizer and respective two-dimensional projection tomosynthesis x-ray images ETp2 in the course of a longer second trajectory of the source around the immobilizer; an image processor configured to apply tomosynthesis image reconstruction processing to the images ETp1 and ETp2 to obtain reconstructed images ETr which represent respective breast slices having selected thicknesses and orientations; characterized in that the ETp1 images contribute more high spatial frequency content to the reconstructed images ETr than the ETp2 images. a breast immobilizer configured to immobilize a patient's breast; an x-ray source and an x-ray imaging receptor configured to image the breast in a mode in which the receptor obtains respective two-dimensional projection tomosynthesis x-ray images ETp1 in the course of a first trajectory of the source around the immobilizer and respective two-dimensional projection tomosynthesis x-ray images ETp2 in the course of a longer second trajectory of the source around the immobilizer; an image processor configured to apply tomosynthesis image reconstruction processing to the images ETp1 and ETp2 to obtain reconstructed images ETr which represent respective breast slices having selected thicknesses and orientations; characterized in that the ETp1 images contribute more high spatial frequency content to the reconstructed images ETr than the ETp2 images.
Lock with a one- or multi-part lock casing, a catch, a spring that pushes the catch into its position lowered from the lock casing, a pressure nut, and a nut pivot lever operated by the pressure nut, whereby the nut pivot lever contacts the catch tail of the catch and draws it into the lock casing, as well as a setting lever through which a latch rod protruding from the lock casing can be activated, whereby the latch rod is pushed out from the lock casing against the weight force of the latch rod via a relief spring, whereby the spring force of the relief spring can be adjusted via an adjusting screw, distinguished by the fact that the setting lever is located on the catch tail, that the open end of the adjusting screw bears a thread sleeve with a spring-loaded bearing, that the lock casing exhibits an adjustment display to show the preload force of the relief spring, and that the thread sleeve bears an indicator for the adjustment display.
A method of controlling a backing system (14, 114, 214) for a vehicle and trailer assembly, the method comprising: initiating a backing system mode with an electronic control unit for a backing system (14, 114, 214) when a start system input is received from a control device, the control device is wirelessly connected to the electronic control unit; recording an image of a hitch for the vehicle and trailer assembly; determining a hitch angle using a plurality of reference points on the trailer which are viewed by the camera (44, 50); determining which portions of the image are relevant to a current position of the vehicle and trailer assembly, and which portions of the image are non-relevant; sending data regarding the relevant portions to the control device via a secured wireless connection; displaying the relevant portion of the image on a display (34, 46) for the control device; and displaying the portions of the image that are determined non-relevant on the display (34, 46) by a graphical icon. initiating a backing system mode with an electronic control unit for a backing system (14, 114, 214) when a start system input is received from a control device, the control device is wirelessly connected to the electronic control unit; recording an image of a hitch for the vehicle and trailer assembly; determining a hitch angle using a plurality of reference points on the trailer which are viewed by the camera (44, 50); determining which portions of the image are relevant to a current position of the vehicle and trailer assembly, and which portions of the image are non-relevant; sending data regarding the relevant portions to the control device via a secured wireless connection; displaying the relevant portion of the image on a display (34, 46) for the control device; and displaying the portions of the image that are determined non-relevant on the display (34, 46) by a graphical icon.
A device for aligning an X-ray grating to an X-ray radiation source, the device comprising - at least two flat X-ray grating segments; - at least one alignment unit for aligning one of the at least two flat X-ray grating segments; wherein the at least two flat X-ray grating segments are arranged in juxtaposition and are forming an X-ray grating; wherein the at least two flat X-ray grating segments each comprise a grating surface for X-ray radiation, each grating surface comprising a geometrical center; wherein normals to each of the grating surfaces define a common plane, wherein the normals intersect the geometrical center of the grating surface; wherein at least a first of the at least two flat X-ray grating segments is rotatable around an axis that is perpendicular to the common plane; and wherein the first of the at least two flat X-ray grating segments is connected to a first of the at least one alignment unit. - at least two flat X-ray grating segments; - at least one alignment unit for aligning one of the at least two flat X-ray grating segments; wherein the at least two flat X-ray grating segments are arranged in juxtaposition and are forming an X-ray grating; wherein the at least two flat X-ray grating segments each comprise a grating surface for X-ray radiation, each grating surface comprising a geometrical center; wherein normals to each of the grating surfaces define a common plane, wherein the normals intersect the geometrical center of the grating surface; wherein at least a first of the at least two flat X-ray grating segments is rotatable around an axis that is perpendicular to the common plane; and wherein the first of the at least two flat X-ray grating segments is connected to a first of the at least one alignment unit.