mhurhangee/ep-ind-claims huggingface dataset:
Feeding device (4, 22, 130, 152) for feeding a liquid odorant into a gas stream flowing through a gas line, - having an odorant nozzle (26, 142) and - having an inflow body (28, 78, 88, 94, 132) connected with the odorant nozzle for positioning in a gas flow in a gas line, - wherein the inflow body (28, 78, 88, 94, 132) comprises an evaporation body (42, 80, 90, 96), - wherein the odorant nozzle (26, 142) is designed to apply liquid odorant to the evaporation body (42, 80, 90, 96), and - wherein the feeding device (4, 22, 130, 152) is configured to be inserted into a wall opening (44, 160) of a gas line section (1, 24, 158), so that the inflow body (28, 78, 88, 94, 132) extends into the gas line section (1, 24, 158), characterised - in that a sensor (134, 136) is arranged at the inflow body (28, 78, 88, 94, 132). - having an odorant nozzle (26, 142) and - having an inflow body (28, 78, 88, 94, 132) connected with the odorant nozzle for positioning in a gas flow in a gas line, - wherein the inflow body (28, 78, 88, 94, 132) comprises an evaporation body (42, 80, 90, 96), - wherein the odorant nozzle (26, 142) is designed to apply liquid odorant to the evaporation body (42, 80, 90, 96), and - wherein the feeding device (4, 22, 130, 152) is configured to be inserted into a wall opening (44, 160) of a gas line section (1, 24, 158), so that the inflow body (28, 78, 88, 94, 132) extends into the gas line section (1, 24, 158), - in that a sensor (134, 136) is arranged at the inflow body (28, 78, 88, 94, 132).
A heat radiation member comprising a laminated structure including a metal material and a carbon material having a following property bonded to each other; in pressurizing one principal surface of a plate specimen having a thickness of 11 mm of the carbon material with nitrogen gas of 200 kPa, the carbon material having a gas permeability of the nitrogen gas permeating to the other principal surface with a flow rate of 5 L/min or more and 30 L/min or less per 0.01 m 2 in terms of area of the pressurized principal surface, the pressurized principal surface having an area of 0.005 m 2 or more. in pressurizing one principal surface of a plate specimen having a thickness of 11 mm of the carbon material with nitrogen gas of 200 kPa, the carbon material having a gas permeability of the nitrogen gas permeating to the other principal surface with a flow rate of 5 L/min or more and 30 L/min or less per 0.01 m 2 in terms of area of the pressurized principal surface, the pressurized principal surface having an area of 0.005 m 2 or more.
Dry powder cell culture medium in which more than 70% (w/w) of all cystein, cystin and tyrosine and/or salts thereof present in the medium is present in the form of particles with particle sizes below 50 μm and in which more than 70% (w/w) of all serine, isoleucine, leucine, glycine and phenylalanine and/or salts thereof present in the medium is present in the form of particles with particle sizes above 100 μm.
A heat exchanger plate for a plate heat exchanger, the heat exchanger plate comprising a heat exchanger area extending in parallel with an extension plane (p) and comprising a primary corrugation and at least three sides (5, 6), a longitudinal central axis (x) extending in parallel with the extension plane (p) through at least one of the sides, a plurality of portholes extending through the heat exchanger area, and an edge flange extending outside and around the heat exchanger area along the sides (5, 6), wherein the edge flange is inclined in relation to the extension plane (p), and comprises a secondary corrugation of ridges and valleys, characterized in that the ridges and valleys of the secondary corrugation extend along a secondary direction (y) away from extension plane (p) of the heat exchanger area.
A device for detecting deformations of a rotor blade of a wind turbine generator system, comprising: - a position-measuring device comprising a first and a second assembly (1.1, 1.2), wherein the first assembly (1.1) is disposed so as to be movable relative to the second assembly (1.2) and the relative position between the first and the second assemblies (1.1, 1.2) can be measured by the position-measuring device, - an arm which is mechanically coupled to the first assembly (1.1) and has a first adhesive bonding surface (2.5) which is configured in such a manner that the arm can be permanently joined to the rotor blade at said first adhesive bonding surface, wherein the second assembly (1.2) has a second adhesive bonding surface (1.225) which is configured in such a manner that the second assembly (1.2) can be permanently joined to the rotor blade, characterized in that the device furthermore has at least one pair of mounting elements (1.221. 2.1, 1.222, 2.2) which comprises a first mounting element (1.221, 2.1) and a second mounting element (1.222, 2.2), wherein the first mounting element (1.221, 2.1) is connected detachably to the second mounting element (1.222, 2.2) and is fixed on the second assembly (1.2) and on the arm coupled to the first assembly (1.1) and the second mounting element (1.222, 2.2) is configured so that this can be adhesively attached to the rotor blade. - a position-measuring device comprising a first and a second assembly (1.1, 1.2), wherein the first assembly (1.1) is disposed so as to be movable relative to the second assembly (1.2) and the relative position between the first and the second assemblies (1.1, 1.2) can be measured by the position-measuring device, - an arm which is mechanically coupled to the first assembly (1.1) and has a first adhesive bonding surface (2.5) which is configured in such a manner that the arm can be permanently joined to the rotor blade at said first adhesive bonding surface, wherein
A method (400, 500) operative in a streaming client device (124, 350) disposed in an adaptive streaming environment, the method (400, 500) comprising: monitoring at least a bandwidth condition relative to a network connection between the streaming client device (124, 350) and a content delivery network; determining (404, 502) one or more adjacent channels relative to a current streaming channel of the streaming client device (124, 350); pre-fetching (406, 504) metadata information associated with the one or more adjacent channels; responsive to the pre-fetched metadata information, pre-fetching and storing (408, 506) initialization information for the one or more adjacent channels; and if the current streaming channel is changed to a new streaming channel belonging to the one or more adjacent channels, using the pre-fetched initialization information to fetch encoded media content pertaining to the new streaming channel. monitoring at least a bandwidth condition relative to a network connection between the streaming client device (124, 350) and a content delivery network; determining (404, 502) one or more adjacent channels relative to a current streaming channel of the streaming client device (124, 350); pre-fetching (406, 504) metadata information associated with the one or more adjacent channels; responsive to the pre-fetched metadata information, pre-fetching and storing (408, 506) initialization information for the one or more adjacent channels; and if the current streaming channel is changed to a new streaming channel belonging to the one or more adjacent channels, using the pre-fetched initialization information to fetch encoded media content pertaining to the new streaming channel.
A method of transmitting data via a multi-antenna transmitter, the method comprising: A. acquiring multiple data streams (20-1,.., 20-n), wherein each data stream corresponds to a subframe in an OFDM system and comprises data blocks (20-1-1,.., 20-n-k) at two slots; B. grouping and mapping each data block, wherein the data blocks (20-1-1,.., 20-n-k) at the same slot in each data stream are grouped according to the number of the antennas (50-1,.., 50-m) and each group is mapped to one of the antennas (50-1,.., 50-m) respectively, and the different data blocks (20-1-1 to 20-n-k) in the same group are mapped to different sub-bands (35-1-1,.., 35-m-j) respectively; and wherein grouping and mapping manners which are not exactly the same are adopted for the data blocks (20-1-1,.., 20-n-k) at different slots, and the grouping and mapping manners comprise data block grouping manners, group-to-antenna mapping manners, and sub-band mapping manners; C. transmitting the groups of data blocks (20-1-1,.., 20-n-k) at the multiple slots via the antennas (50-1,.., 50-m) respectively. A. acquiring multiple data streams (20-1,.., 20-n), wherein each data stream corresponds to a subframe in an OFDM system and comprises data blocks (20-1-1,.., 20-n-k) at two slots; B. grouping and mapping each data block, wherein the data blocks (20-1-1,.., 20-n-k) at the same slot in each data stream are grouped according to the number of the antennas (50-1,.., 50-m) and each group is mapped to one of the antennas (50-1,.., 50-m) respectively, and the different data blocks (20-1-1 to 20-n-k) in the same group are mapped to different sub-bands (35-1-1,.., 35-m-j) respectively; and wherein grouping and mapping manners which are not exactly the same are adopted for the data blocks (20-1-1,.., 20-n-k) at different slots, and the grouping and mapping manners comprise data block grouping manners, group-to-antenna mapping manners, and sub-band mapping manners; C. transmitting the groups of data blocks (20-1-1,.., 20-n-k) at the multiple slots via the antennas (50-1,.., 50-m) respectively.
A protection and/or combustion material, in particular for thermal protection and/or protection against impacts or degradations, comprising at least one first layer composed of at least one first fiber and at least one second layer composed of at least one second fiber, said first and second layers (2, 3) being intended to perform, at least partially, a protection and/or combustion function, characterized in that said first and second fibers are of natural origin and the first and second layers (2, 3) are held together by establishing direct chemical bonds between said first and second fibers at a contact area therebetween, the second fiber being deposited directly over the first layer, the first and second fibers of said first and second insulation layers (2, 3) being brought into contact, at least partially, at an interface area between said first and second layers (2, 3) corresponding to the contact area, without the use of an intermediate adhesive layer or of a compatibilizer between said layers (2, 3).
Circuit arrangement for operating at least one high-pressure discharge lamp (La) comprising - a voltage converter comprising at least one electronic switch (T1; T2); - an actuation circuit for actuating the at least one electronic switch (T1; T2) of the voltage converter at a presettable converter frequency (f s); - a first and a second connection for coupling to the at least one high-pressure discharge lamp (La); - a first capacitor which is coupled between the voltage converter and the first connection for the discharge lamp; and - a charging apparatus, which is coupled to the first capacitor in order to charge said capacitor with a DC voltage to a starting voltage for starting the high-pressure discharge lamp (La); wherein the voltage converter comprises a transformer (Tr), wherein the transformer (Tr) comprises a primary inductance (P1; P1a, P1b) having at least one first and one second connection and a secondary inductance having a first and a second connection, wherein the first capacitor is coupled between the first connection of the secondary inductance and the first connection for the at least one high-pressure discharge lamp (La), characterized in that the converter frequency (f s) is selected during steady-state operation of the circuit arrangement in such a way that the secondary side, which at least comprises the series circuit comprising the secondary inductance, the first capacitor and the high-pressure discharge lamp (La), is operated substantially at resonance. - a voltage converter comprising at least one electronic switch (T1; T2); - an actuation circuit for actuating the at least one electronic switch (T1; T2) of the voltage converter at a presettable converter frequency (f s); - a first and a second connection for coupling to the at least one high-pressure discharge lamp (La); - a first capacitor which is coupled between the voltage converter and the first connection for the discharge lamp; and - a charging apparatus, which is coupled to the first capacitor in order to charge said capacitor with a DC voltage to a starting voltage for starting the high-pressure discharge lamp (La); wherein the voltage converter comprises a transformer (Tr), wherein the transformer (Tr) comprises a primary inductance (P1; P1a, P1b) having at least one first and one second connection and a secondary inductance having a first and a second connection, wherein the first capacitor is coupled between the first connection of the secondary inductance and the first connection for the at least one high-pressure discharge lamp (La), characterized in that the converter frequency (f s) is selected during steady-state operation of the circuit arrangement in such a way that the secondary side, which at least comprises the series circuit comprising the secondary inductance, the first capacitor and the high-pressure discharge lamp (La), is operated substantially at resonance.
Electric drive unit for a drum motor, comprising: - an electric drive device having a stator and a rotor, said stator and said rotor being disposed in a stator housing which extends along a longitudinal axis; - a cable (900, 900'), wherein a first portion of the cable (900, 900') is connected to the drive device, and a liquid encapsulation is disposed on a second portion of the cable (900, 900') that has individual lines which are litz wires; - wherein a rear flange (10, 10') is disposed on an axial end of the stator housing, wherein the rear flange comprises ∘ an annular space (140, 140') which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable (900, 900') that is connected to the drive device; ∘ wherein the first portion of the cable (900, 900') is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable (900, 900') that has individual lines which are litz wires; - and wherein the liquid encapsulation is disposed in the annular space (140, 140'); - and wherein the end regions of the first and the second portion of the cable that adjoin the liquid encapsulation are disposed in the annular space (140, 140'). - an electric drive device having a stator and a rotor, said stator and said rotor being disposed in a stator housing which extends along a longitudinal axis; - a cable (900, 900'), wherein a first portion of the cable (900, 900') is connected to the drive device, and a liquid encapsulation is disposed on a second portion of the cable (900, 900') that has individual lines which are litz wires; - wherein a rear flange (10, 10') is disposed on an axial end of the stator housing, wherein the rear flange comprises ∘ an annular space (140, 140') which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable (900, 900') that is connected to the drive device; ∘ wherein the first portion of the cable (900, 900') is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable (900, 900') that has individual lines which are litz wires; ∘ an annular space (140, 140') which is disposed on an end side that in the operating state faces away from an interior of the stator housing and which is disposed and configured for receiving a liquid encapsulation of the cable (900, 900') that is connected to the drive device; ∘ wherein the first portion of the cable (900, 900') is connected to the drive device, and the liquid encapsulation is disposed on the second portion of the cable (900, 900') that has individual lines which are litz wires; - and wherein the liquid encapsulation is disposed in the annular space (140, 140'); - and wherein the end regions of the first and the second portion of the cable that adjoin the liquid encapsulation are disposed in the annular space (140, 140').
A device for heat dissipation of a terminal, the device comprising: a heat source chip, a heat pipe, and a shield, wherein the shield is located between the heat source chip and the heat pipe, and is connected with the heat source chip and with the heat pipe via the same type of flexible thermal conductive solid; and a microporous array is arranged at a connection position between the flexible thermal conductive solids, which are in contact with the shield; wherein one end of the heat pipe, which is located close to the heat source chip, is an evaporation area, and another end, which is remote from the heat source pipe, is a condensation area, the condensation area of the heat pipe is connected with a metal plate via a flexible thermal conductive solid, and is further connected with a support via a flexible thermal conductive solid, wherein the support is connected with a back shell of the terminal via a lining thermal conductive layer.
Supporting structure of a noise-protection wall, in particular for a noise-protection wall for shielding roads, railroads and industrial sources of noise, having panel-like uprights spaced apart from one another, parallel to one another, wherein the respective upright is formed by a plurality of upright parts arranged one above the other, and the panel-like upright parts are provided laterally, on the end side, with recesses for accommodating supporting boards in the end regions of the latter, wherein overlapping regions of in each case two supporting boards are formed in the same recess, characterized in that the respective upright part has at the top and bottom, on the end side, at least one mount (13, 14) for connection to at least one spacer element (3a, 3b), wherein the spacer element (3a, 3b) connects upright parts of adjacent uprights and is connected to said upright parts in a form-fitting manner in the longitudinal direction of the spacer element (3a, 3b), and each supporting board, at least in the region of one end, is mounted in a longitudinally freely displaceable manner in that recess of the upright part which accommodates said end.
A capsule-type endoscope comprising: an image pickup unit that includes an objective optical system and an image pickup element; at least one illumination means; and a transparent cover; wherein an inner surface of the transparent cover has an ellipsoidal shape, characterized in that in a cross section that contains the optical axis of the objective optical system and the vertex (St) of the inner surface of the transparent cover, D1 is greater than (β1) 2 /(4•α1), where D1 is a distance between the center (Pc) of the entrance pupil of the objective optical system and the intersection of the major axis and the minor axis of the inner surface of the transparent cover, β1 equals the minor diameter of the ellipsoid divided by 2, and α1 equals the major diameter of the ellipsoid divided by 2. an image pickup unit that includes an objective optical system and an image pickup element; at least one illumination means; and a transparent cover; wherein an inner surface of the transparent cover has an ellipsoidal shape, characterized in that in a cross section that contains the optical axis of the objective optical system and the vertex (St) of the inner surface of the transparent cover, D1 is greater than (β1) 2 /(4•α1), where D1 is a distance between the center (Pc) of the entrance pupil of the objective optical system and the intersection of the major axis and the minor axis of the inner surface of the transparent cover, β1 equals the minor diameter of the ellipsoid divided by 2, and α1 equals the major diameter of the ellipsoid divided by 2.
A method of processing bone, comprising: positioning bone at least partially covered with tissue comprising at least one of muscle, periosteum and connective tissue in a bone denuding device; providing a power source for operating the bone denuding device; coupling an impeller to the power source wherein the impeller includes a plurality of blades (316, 318); positioning the impeller in a cutting drum having a cutting surface such that, upon rotation of the impeller, at least one blade (316, 318) of the impeller contacts the bone while urging the bone against the cutting surface; characterized by said plurality of blades being formed of a polymer and operating the power source of the bone denuding device to rotate the impeller to separate the tissue from the bone to produce denuded bone; and operating a bone milling device to morselize the denuded bone and produce morselized bone particles. positioning bone at least partially covered with tissue comprising at least one of muscle, periosteum and connective tissue in a bone denuding device; providing a power source for operating the bone denuding device; coupling an impeller to the power source wherein the impeller includes a plurality of blades (316, 318); positioning the impeller in a cutting drum having a cutting surface such that, upon rotation of the impeller, at least one blade (316, 318) of the impeller contacts the bone while urging the bone against the cutting surface; characterized by said plurality of blades being formed of a polymer and operating the power source of the bone denuding device to rotate the impeller to separate the tissue from the bone to produce denuded bone; and operating a bone milling device to morselize the denuded bone and produce morselized bone particles.
A valve control device for controlling operation of a valve actuator configured to be connected to a valve member, the valve control device being configured to be removably mounted on the valve actuator and comprising: a position sensor for detecting actuating position of the valve actuator and outputting the detected position as a feedback signal, a memory device for storing position data reflecting the feedback signal from the position sensor at at least one actuating position of the valve actuator, and an electronic control unit for controlling operation of the valve actuator using the feedback signal from the position sensor and the position data from the memory device, characterised in that the electronic control unit is configured for automatically performing a reset of the position data of the memory device as a result of the valve control device becoming separated from, and/or assembled on, the valve actuator, wherein the electronic control unit is configured for automatically detecting separation and/or assembly of the valve control device relative to the valve actuator, and performing the reset of the position data of the memory device in response to such an automatic detection of separation and/or assembly of the valve control device relative to the valve actuator. a position sensor for detecting actuating position of the valve actuator and outputting the detected position as a feedback signal, a memory device for storing position data reflecting the feedback signal from the position sensor at at least one actuating position of the valve actuator, and an electronic control unit for controlling operation of the valve actuator using the feedback signal from the position sensor and the position data from the memory device, characterised in that the electronic control unit is configured for automatically performing a reset of the position data of the memory device as a result of the valve control device becoming separated from, and/or assembled on, the valve actuator, wherein the electronic control unit is configured for automatically detecting separation and/or assembly of the valve control device relative to the valve actuator, and performing the reset of the position data of the memory device in response to such an automatic detection of separation and/or assembly of the valve control device relative to the valve actuator.