mhurhangee/ep-ind-claims huggingface dataset:
Assembly comprising: - a substrate that is embodied from an electrically insulating material, - an SMD component that comprises lateral contact surfaces, and - a stamped lead frame part that is embodied from metal and is fastened to the substrate and is used to establish electrical connections between the lateral contact surfaces of the SMD component and further functional elements of the assembly, wherein the stamped lead frame part comprises contact tongues that lie in a resilient manner against the lateral contact surfaces and are connected by means of a positive material connection to the lateral contact surface, and wherein the substrate comprises a depression that is formed in an upper face, the SMD component being arranged in said depression and the contact tongues protruding into said depression, characterized in that the depression comprises a base and lateral wall faces and the contact tongues are arranged at a distance from the lateral wall faces. - a substrate that is embodied from an electrically insulating material, - an SMD component that comprises lateral contact surfaces, and - a stamped lead frame part that is embodied from metal and is fastened to the substrate and is used to establish electrical connections between the lateral contact surfaces of the SMD component and further functional elements of the assembly,
A method, performed by an Evolved Node B for scheduling a User Equipment, UE, in a mobile communication system, the method comprising the steps of: determining a timing for transmitting a scheduling request for transmission of particular data; signaling (310, 421) mapping information, said mapping information providing a mapping between the timing and the transmission of the particular data, to the UE; receiving a scheduling request from the UE; determining whether the scheduling request is received at the timing mapped to the transmission of the particular data; allocating (341, 451) a radio resource for the transmission of the particular data to the UE based on the mapping information if (331, 431, 441) the scheduling request is received at the timing mapped to the transmission of the particular data; and receiving the particular data from the UE through the allocated radio resource. determining a timing for transmitting a scheduling request for transmission of particular data; signaling (310, 421) mapping information, said mapping information providing a mapping between the timing and the transmission of the particular data, to the UE; receiving a scheduling request from the UE; determining whether the scheduling request is received at the timing mapped to the transmission of the particular data; allocating (341, 451) a radio resource for the transmission of the particular data to the UE based on the mapping information if (331, 431, 441) the scheduling request is received at the timing mapped to the transmission of the particular data; and receiving the particular data from the UE through the allocated radio resource.
Container treatment machine for treating containers, particularly a labeling machine for labeling containers, such as bottles in the beverage-processing industry, having at least one machine unit which in operation can treat containers, in particular label them, and a movable protective element which separates at least part of the machine unit from the environment, the protective element comprising a handle (130/210) for moving the protective element, characterized in that the handle comprises a pushbutton (131, 211) for locking and/or unlocking, which when actuated can release and/or block the movement of the protective element, wherein the pushbutton comprises a second button (132, 221) which when actuated can release the operation of the labeling machine, characterized in that the pushbutton is designed such that the second button can only be actuated when the protective element is closed to release the operation of the labeling machine.
A component for a gas turbine engine, comprising: a substrate; a thermal barrier coating deposited on at least a portion of said substrate; and an outer layer deposited on at least a portion of said thermal barrier coating, wherein said outer layer includes a material that is capable of reacting with an environmental contaminant that comes into contact with said outer layer to alter a microstructure of said outer layer, wherein: said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant. a substrate; a thermal barrier coating deposited on at least a portion of said substrate; and an outer layer deposited on at least a portion of said thermal barrier coating, wherein said outer layer includes a material that is capable of reacting with an environmental contaminant that comes into contact with said outer layer to alter a microstructure of said outer layer, wherein: said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant. said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant.
A separator comprising: a first header into which gas flows from an exterior of the separator; a core connected to the first header and comprising at least one flow path configured to cool the gas flowing from the first header through the flow path; and a second header connected to the core and configured to guide the gas passing through the at least one flow path to the exterior of the separator, wherein the second header comprises at least one first baffle provided on an inner wall of the second header and configured to remove moisture from the gas, wherein the at least one first baffle comprises a protrusion protruding from the inner wall of the second header and extending from an upstream side of a flow direction to a downstream side of the flow direction, wherein the baffle comprises at least one bending portion, and wherein the protrusion comprises at least one of a U-shape, W-shape and a V-shape. a first header into which gas flows from an exterior of the separator; a core connected to the first header and comprising at least one flow path configured to cool the gas flowing from the first header through the flow path; and a second header connected to the core and configured to guide the gas passing through the at least one flow path to the exterior of the separator, wherein the second header comprises at least one first baffle provided on an inner wall of the second header and configured to remove moisture from the gas, wherein the at least one first baffle comprises a protrusion protruding from the inner wall of the second header and extending from an upstream side of a flow direction to a downstream side of the flow direction, wherein the baffle comprises at least one bending portion, and wherein the protrusion comprises at least one of a U-shape, W-shape and a V-shape.
A battery cell manufacturing apparatus for enhancing the wetting of an electrolyte to an electrode assembly in the battery cell, the apparatus comprising: a battery cell tray in which one or more preliminary battery cells are housed; and an excitation unit which makes a contact opposite to one side of the battery cell tray and applies megasonic vibration to the preliminary battery cell in a state in which the preliminary battery cell is housed; wherein the megasonic vibration is a vibration having a frequency of 500 kHz to 3000 kHz. a battery cell tray in which one or more preliminary battery cells are housed; and an excitation unit which makes a contact opposite to one side of the battery cell tray and applies megasonic vibration to the preliminary battery cell in a state in which the preliminary battery cell is housed; wherein the megasonic vibration is a vibration having a frequency of 500 kHz to 3000 kHz.
A cap assembly comprising: a cap body configured to be removably secured to a cell body, the cap body including a throughbore and a peripheral wall; a cap insert including a plunger, a peripheral flange extending outwardly from the plunger, and a recess disposed within the plunger, the flange and the plunger of the cap insert slidably received, respectively, inside the peripheral wall and the throughbore of the cap body; a retaining ring for locking the peripheral flange of the cap insert within the peripheral wall of the cap body; and a seal removably received within the throughbore; wherein the recess is configured to removably receive a bed support therein; wherein the seal frictionally engages the throughbore and secures the bed support within the recess; wherein the seal forms a fluid seal with the cell body when the cap assembly is secured to the cell body; and wherein the plunger is configured to remove the seal by pushing the seal from the throughbore. a cap body configured to be removably secured to a cell body, the cap body including a throughbore and a peripheral wall; a cap insert including a plunger, a peripheral flange extending outwardly from the plunger, and a recess disposed within the plunger, the flange and the plunger of the cap insert slidably received, respectively, inside the peripheral wall and the throughbore of the cap body; a retaining ring for locking the peripheral flange of the cap insert within the peripheral wall of the cap body; and a seal removably received within the throughbore; wherein the recess is configured to removably receive a bed support therein; wherein the seal frictionally engages the throughbore and secures the bed support within the recess; wherein the seal forms a fluid seal with the cell body when the cap assembly is secured to the cell body; and wherein the plunger is configured to remove the seal by pushing the seal from the throughbore.
System for determining at least one characteristic of a portion of a blood vessel of a patient, the portion of the blood vessel comprising blood including a contrast agent exhibiting nuclear resonant absorption of x-ray photons at a specific energy, the system comprising: - a tunable monochromatic x-ray source (21, 21') configured to emit x-ray radiation, - an x-ray detector device (22, 22') arranged to detect the x-ray radiation after it has travelled through the portion of the blood vessel and to provide a detection signal indicative of an intensity of the detected x-ray radiation, - a control unit (26, 26') adapted to vary a tuning of the x-ray source (21, 21') to thereby vary the energy of the x-ray radiation emitted by the x-ray source (21, 21'), and - an evaluation unit (27, 27') configured to determine, on the basis of the detection signal, a tuning of the x-ray source (21, 21') at which nuclear resonant absorption of the x-ray radiation incident onto the portion of the blood vessel occurs and to estimate the at least one characteristic on the basis of the determined tuning. - a tunable monochromatic x-ray source (21, 21') configured to emit x-ray radiation, - an x-ray detector device (22, 22') arranged to detect the x-ray radiation after it has travelled through the portion of the blood vessel and to provide a detection signal indicative of an intensity of the detected x-ray radiation, - a control unit (26, 26') adapted to vary a tuning of the x-ray source (21, 21') to thereby vary the energy of the x-ray radiation emitted by the x-ray source (21, 21'), and - an evaluation unit (27, 27') configured to determine, on the basis of the detection signal, a tuning of the x-ray source (21, 21') at which nuclear resonant absorption of the x-ray radiation incident onto the portion of the blood vessel occurs and to estimate the at least one characteristic on the basis of the determined tuning.
A free piston engine linear switched reluctance or switched flux generator comprising a piston comprising a plurality of annular magnetically permeable elements having isotropic magnetic permeability and isotropic electrical resistivity, and at least one annular spacer element with low magnetic permeability, the magnetically permeable elements and the at least one annular spacer element being coaxial along a piston shaft, an axially segmented, cylindrically shaped stator defining a bore therethrough and comprising a plurality of magnetically permeable segments and a plurality of coils, wherein the magnetically permeable segments are configured coaxially to allow the piston to reciprocate within the bore and the plurality of coils are arranged in close proximity to the piston, characterised by each stator element being formed by an annular coil inserted in a recess of an annular magnetically permeable yoke segment having an L-shaped crossed section, said core segments when axially stacked form multiple tori around the plurality of axially arranged coils, said core segments are open to the inside of the tori so that when the piston magnetically permeable annular elements are aligned axially with the stator segments, they form closed magnetic circuits around the coil, thereby providing toroidal magnetic flux circuits (T1, T2, T3, T4) that are coaxial with the direction of travel of the piston, so that the reciprocation of the piston causes a variation of the magnetic flux within the coils, a housing having a cylindrical bore in which the axially segmented cylindrically shaped stator is secured and, together with the piston, defining two axially opposing chambers, at least one of which is a combustion chamber, and means for securing the axially segmented cylindrically shaped stator within the housing; wherein the magnetically permeable segments (2f, 9c) are formed from Soft Magnetic Composite material having isotropic electrical resistivity greater than 5.0 x 10 -6 Ω.m in all directions.
An overflow chamber that can discharge rainwater and soil, comprising: a receiving unit having a receiving space therein that can keep received object which is any one of sewage, rainwater, and soil or mixed liquid of two or more of them; an interceptor port formed at a lower portion of a side of the receiving unit and selectively opening/closing in accordance with the amount of received object received in the receiving unit; a discharge port formed at a lower portion of another side of the receiving unit, formed to have a polygonal cross-section that is long in a transverse direction, so as to discharge the received object to river smoothly; and, a first discharge pipe having a polygonal cross-section that is long in a transverse direction, communicating with the discharge port and convexly bending upward at least one time; wherein when the level of the received object flowing in the receiving unit is higher than a predetermined level, the received object is discharged only to the first discharge pipe by a siphon principle, and the interceptor port is closed., a receiving unit having a receiving space therein that can keep received object which is any one of sewage, rainwater, and soil or mixed liquid of two or more of them; an interceptor port formed at a lower portion of a side of the receiving unit and selectively opening/closing in accordance with the amount of received object received in the receiving unit; a discharge port formed at a lower portion of another side of the receiving unit, formed to have a polygonal cross-section that is long in a transverse direction, so as to discharge the received object to river smoothly; and, a first discharge pipe having a polygonal cross-section that is long in a transverse direction, communicating with the discharge port and convexly bending upward at least one time; wherein when the level of the received object flowing in the receiving unit is higher than a predetermined level, the received object is discharged only to the first discharge pipe by a siphon principle, and the interceptor port is closed.,
Method of manufacturing a structural element comprising a fiber-reinforced plastic, wherein - a flexible tube is selected from the group rubber, PVC, PE, PA, PU, silicones, PTFE, - a tube tissue is provided with a tube casing, - the flexible tube is provided with the tube tissue by introducing the tube tissue into the interior of the flexible tube, - a flow aid is introduced between the tube casing and the tube tissue or between the flexible tube and the tube tissue, - the flexible tube with the tube tissue is brought in a bent form, - a liquid plastic is applied onto the tube tissue after the flexible tube was provided with the tube tissue, by applying an increased pressure in the interior of the flexible tube and between the flexible tube and the tube casing, - subsequently, the liquid plastic applied onto the tube tissue is cured. - a flexible tube is selected from the group rubber, PVC, PE, PA, PU, silicones, PTFE, - a tube tissue is provided with a tube casing, - the flexible tube is provided with the tube tissue by introducing the tube tissue into the interior of the flexible tube, - a flow aid is introduced between the tube casing and the tube tissue or between the flexible tube and the tube tissue, - the flexible tube with the tube tissue is brought in a bent form, - a liquid plastic is applied onto the tube tissue after the flexible tube was provided with the tube tissue, by applying an increased pressure in the interior of the flexible tube and between the flexible tube and the tube casing, - subsequently, the liquid plastic applied onto the tube tissue is cured.
A computer-based apparatus, comprising: a wireless proximity reader within a security boundary, the proximity reader configured to wirelessly receive a signal from a proximate device; a secure processor within the security boundary, the secure processor configured to cryptographically sign or encrypt a credential for transmission to a service provider system in response to the proximity reader receiving the signal from the proximate device; and an interface configured to send the cryptographically signed or encrypted credential to the service provider system to gain access to a secure service provided by the service provider system, wherein the security boundary comprises a physical boundary and a cryptographic boundary and is configured to prevent software that is executing external to the physical boundary and the cryptographic boundary from accessing the credential, wherein the security boundary physically encapsulates the proximity reader and the secure processor, wherein the proximity reader is incorporated onto a same integrated circuit as the secure processor. a wireless proximity reader within a security boundary, the proximity reader configured to wirelessly receive a signal from a proximate device; a secure processor within the security boundary, the secure processor configured to cryptographically sign or encrypt a credential for transmission to a service provider system in response to the proximity reader receiving the signal from the proximate device; and an interface configured to send the cryptographically signed or encrypted credential to the service provider system to gain access to a secure service provided by the service provider system, wherein the security boundary comprises a physical boundary and a cryptographic boundary and is configured to prevent software that is executing external to the physical boundary and the cryptographic boundary from accessing the credential, wherein the security boundary physically encapsulates the proximity reader and the secure processor, wherein the proximity reader is incorporated onto a same integrated circuit as the secure processor.
A method by a master base station, MeNB, for allocating an aggregate maximum bit rate, AMBR, of a user equipment, UE, comprising: receiving, from a mobility management entity, MME, an AMBR of a UE, UE-AMBR; and receiving, from a secondary base station, SeNB, information for allocating an AMBR of the SeNB; and allocating the AMBR of the SeNB according to the information, wherein a sum of the AMBRs of the MeNB and the SeNB is not greater than the UE-AMBR, and characterised in that, the information for allocating the AMBR of the SeNB includes at least one of a quality of service requirement of a non-guaranteed bit rate, non-GBR, service bearer established on the SeNB, or a current aggregate bit rate of the non-GBR service on the SeNB. receiving, from a mobility management entity, MME, an AMBR of a UE, UE-AMBR; and receiving, from a secondary base station, SeNB, information for allocating an AMBR of the SeNB; and allocating the AMBR of the SeNB according to the information, wherein a sum of the AMBRs of the MeNB and the SeNB is not greater than the UE-AMBR, and characterised in that, the information for allocating the AMBR of the SeNB includes at least one of a quality of service requirement of a non-guaranteed bit rate, non-GBR, service bearer established on the SeNB, or a current aggregate bit rate of the non-GBR service on the SeNB.