mhurhangee/ep-ind-claims huggingface dataset:
A chemical sensor comprising: a flexible membrane comprising a III/N heterojunction structure (102, 103; 402, 403) configured so as to form a two dimensional electron gas (104; 305) within said structure; and a sensing material disposed on at least part of said flexible membrane, the sensing material being sensitive to one or more target chemicals so as to undergo a change in physical properties in the presence of said one or more target chemicals, wherein the change in physical properties of the sensing material is volume change or a change in structure or amount of the sensing material; wherein the sensing material is coupled to said heterojunction structure such that said change in physical properties of the sensing material imparts a change in stress within the heterojunction structure which modulates the resistivity of the two dimensional electron gas. a flexible membrane comprising a III/N heterojunction structure (102, 103; 402, 403) configured so as to form a two dimensional electron gas (104; 305) within said structure; and a sensing material disposed on at least part of said flexible membrane, the sensing material being sensitive to one or more target chemicals so as to undergo a change in physical properties in the presence of said one or more target chemicals, wherein the change in physical properties of the sensing material is volume change or a change in structure or amount of the sensing material; wherein the sensing material is coupled to said heterojunction structure such that said change in physical properties of the sensing material imparts a change in stress within the heterojunction structure which modulates the resistivity of the two dimensional electron gas.
A piezoelectric micro-blower comprising: a blower body; a vibrating plate fixed at an outer peripheral portion thereof to the blower body and having a piezoelectric element; a blower chamber formed between the blower body and the vibrating plate; a first wall portion of the blower body provided at a location facing the vibrating plate across the blower chamber for vibrating with vibrations of the vibrating plate; and a second wall portion provided on an opposite side of the first wall portion with respect to the blower chamber; characterised in that the piezoelectric micro-blower further comprises a first plurality of holes (12a, 12b) formed in the first wall portion; a second plurality of holes (52a, 52b) formed in a portion of the second wall portion which faces the first plurality of holes (12a, 12b); and an inflow passage formed between the first wall portion and the second wall portion; wherein each hole of the first plurality of holes (12a, 12b) is provided in a position facing each hole of the second plurality of holes (52a, 52b); and wherein a diameter d2 of each hole of the second plurality of holes (52a, 52b) is more than one and up to three times that of a diameter d1 of each hole of the first plurality of holes (12a, 12b).
A wireless power transfer device comprising a power transmitter including a power transmission resonator composed of a power transmission coil and a resonant capacitance; and a power receiver including a power receiving resonator composed of a power receiving coil and a resonant capacitance, and a power-transmission auxiliary device including an auxiliary resonator composed of an auxiliary coil and a resonant capacitance, thereby transferring power from the power transmitter to the power receiver through magnetic field resonance between the power transmission coil and the power receiving coil, wherein the power-transmission auxiliary device and the power transmitter are configured to be disposed so as to face each other, forming a power receiving space for disposing the power receiving coil between the power transmission coil and the auxiliary coil, so that the auxiliary resonator in combination with the power transmission resonator composes a power transmission-side resonant system having a resonant frequency ft, and the power transmission-side resonant system is configured to be in a close coupling condition in which the resonant frequency ft is split into a lower resonant frequency ftL and a higher resonant frequency ftH higher than ftL, characterized in that a resonant frequency f3 of the auxiliary resonator is set such that the resonant frequency f1 of the power transmission resonator, the resonant frequency f2 of the power receiving resonator, and the resonant frequency f3 satisfy the relationship: f1 = f2 < f3. a power transmitter including a power transmission resonator composed of a power transmission coil and a resonant capacitance; and a power receiver including a power receiving resonator composed of a power receiving coil and a resonant capacitance, and a power-transmission auxiliary device including an auxiliary resonator composed of an auxiliary coil and a resonant capacitance, thereby transferring power from the power transmitter to the power receiver through magnetic field resonance between the power transmission coil and the power receiving coil, wherein the power-transmission auxiliary device and the power transmitter are configured to be disposed so as to face each other, forming a power receiving space for disposing the power receiving coil between the power transmission coil and the auxiliary coil, so that the auxiliary resonator in combination with the power transmission resonator composes a power transmission-side resonant system having a resonant frequency ft, and the power transmission-side resonant system is configured to be in a close coupling condition in which the resonant frequency ft is split into a lower resonant frequency ftL and a higher resonant frequency ftH higher than ftL, characterized in that a resonant frequency f3 of the auxiliary resonator is set such that the resonant frequency f1 of the power transmission resonator, the resonant frequency f2 of the power receiving resonator, and the resonant frequency f3 satisfy the relationship: f1 = f2 < f3.
A scaffold, wherein the scaffold is a matrix providing a three-dimensional structure suitable for tissue regeneration and having the form of at least a portion of a stent, a shunt, a vascular graft, a bone graft, a patch, a cardiac valve, or a catheter, the scaffold comprising: a polymer; and a peptide ligand covalently immobilized on the surface of the polymer, wherein the peptide ligand increases the attachment and recruitment of endothelial cells and/or endothelial progenitor cells to the scaffold, and wherein the peptide ligand is selected from the group consisting of cGRGDsfc, cGRGDdfc, cGRGDsec, cGRGDdsc, cGRGDd- D Bug-c, cGRGDd- D Bta-c, cGRGDdvc, Ac-cGRGDdvc, (β-alanine)-cGRGDdvc, (Ebes)-cGRGDdvc, cGRGDd- D Agl-c, cGRGDd- D Pra-c, cGRGDd- D Bug-c, cGRGDd- D (NMe)Val-c, cGRGDd- D (CaMe)Val-c, cGRGDd- D Abu-c, cGRGDd- D Nal1-c, cGRGDd- D Nal2-c, and cGRGDd- D Bta-c. a polymer; and a peptide ligand covalently immobilized on the surface of the polymer, wherein the peptide ligand increases the attachment and recruitment of endothelial cells and/or endothelial progenitor cells to the scaffold, and wherein the peptide ligand is selected from the group consisting of cGRGDsfc, cGRGDdfc, cGRGDsec, cGRGDdsc, cGRGDd- D Bug-c, cGRGDd- D Bta-c, cGRGDdvc, Ac-cGRGDdvc, (β-alanine)-cGRGDdvc, (Ebes)-cGRGDdvc, cGRGDd- D Agl-c, cGRGDd- D Pra-c, cGRGDd- D Bug-c, cGRGDd- D (NMe)Val-c, cGRGDd- D (CaMe)Val-c, cGRGDd- D Abu-c, cGRGDd- D Nal1-c, cGRGDd- D Nal2-c, and cGRGDd- D Bta-c.
A radio front end (100, 205, 300) for an automotive AM/FM receiver unit, the radio front end comprising: a radio frequency antenna (110, 200, 310); at least one filter (120, 130, 210, 220, 320, 330) connected to said antenna (110, 200, 310); an analog to digital converter (150, 250, 260, 370) for outputting an output signal; said analog to digital converter (150, 250, 260, 370) being connected between said at least one filter (120, 130, 210, 220, 320, 330) and a digital signal processing unit (160, 270, 380); and said digital signal processing unit (160, 270, 380) for receiving the output signal of said analog to digital converter (150, 250, 260, 370); said least one filter (120, 130, 210, 220, 320, 330) is for passing an entire radio frequency band and said analog to digital converter (150, 250, 260, 370) is for receiving said entire radio frequency band from said at least one filter (120, 130, 210, 220, 320, 330); said at least one filter (120, 130, 210, 220, 320, 330) for passing an entire radio frequency band comprises a first filter (120, 210, 320) for passing a first range of radio frequencies and a second filter (130, 220, 330) for passing a second range of radio frequencies; wherein a frequency range passed by said first filter (120, 210, 320) is a fixed range and a frequency range passed by said second filter (130, 220, 330) is a fixed range and comprising a device (140, 360) for selecting between said first (120, 210, 320) and second filters (130, 220, 330) a radio frequency antenna (110, 200, 310); at least one filter (120, 130, 210, 220, 320, 330) connected to said antenna (110, 200, 310); an analog to digital converter (150, 250, 260, 370) for outputting an output signal; said analog to digital converter (150, 250, 260, 370) being connected between said at least one filter (120, 130, 210, 220, 320, 330) and a digital signal processing unit (160, 270, 380); and said digital signal processing unit (160, 270, 380) for receiving the output signal of said analog to digital converter (150, 250, 260, 370);
A point-to-point applications microwave range repeater for use in telecommunications systems, the repeater comprising a repeater antenna (130, 200) connecting transmissions from a first radio unit at a first site to a second radio unit at a second site, said repeater antenna being characterized in that it is essentially plane and also essentially flat, and comprising a plurality of travelling wave antennas, wherein each travelling wave antenna comprises a plurality of radiation elements configured to be serially connected to each other and forming a first and second end element, wherein each first and second end element is configured to be connected to a respective first and second port comprised in each travelling wave antenna, and wherein each travelling wave antenna is associated with a first (120, 1L, 2L, 3L) and a second (150, 1R, 2R, 3R) antenna beam, each of which beams is associated with one of the antenna ports (222, 223), such that the first beam is used by accessing the first port, and the second beam is used by accessing the second port, so that the first beam can be used for transmissions to and from said first radio unit, and the second beam can be used for transmissions to and from said second radio unit.
A method of manufacturing a tablet comprising an electronic device, the electronic device comprising a skirt wherein the skirt comprises an outer diameter, the method comprising: providing a powdered material into a die cavity (2454, 2462, 2474) of a tablet press; dispensing the electronic device from a tape-and-reel carrier tape operatively coupled to the tablet press; locating the electronic device into the die cavity (2454, 2462, 2474); and compressing the powdered material and the electronic device to form a tablet; wherein the carrier tape comprises a cover tape and defines a cavity for holding the electronic device between the carrier tape and the cover tape, and wherein dispensing the electronic device from the carrier tape comprises: removing the cover tape from the carrier tape to expose the electronic device within the cavity; picking the electronic device from the cavity with a pick-and-place element (310, 2300) of the transfer mechanism; transferring the pick-and-place element to the tablet press; and placing the electronic device in the die cavity (2454, 2462, 2474). providing a powdered material into a die cavity (2454, 2462, 2474) of a tablet press; dispensing the electronic device from a tape-and-reel carrier tape operatively coupled to the tablet press; locating the electronic device into the die cavity (2454, 2462, 2474); and compressing the powdered material and the electronic device to form a tablet; wherein the carrier tape comprises a cover tape and defines a cavity for holding the electronic device between the carrier tape and the cover tape, and wherein dispensing the electronic device from the carrier tape comprises: removing the cover tape from the carrier tape to expose the electronic device within the cavity; picking the electronic device from the cavity with a pick-and-place element (310, 2300) of the transfer mechanism; transferring the pick-and-place element to the tablet press; and placing the electronic device in the die cavity (2454, 2462, 2474). removing the cover tape from the carrier tape to expose the electronic device within the cavity; picking the electronic device from the cavity with a pick-and-place element (310, 2300) of the transfer mechanism; transferring the pick-and-place element to the tablet press; and placing the electronic device in the die cavity (2454, 2462, 2474).
An accelerator pedal force control device comprising: a base pedaling force setting section (2,31,33,34) that sets a base pedaling force of an accelerator pedal (2, 21, 31) of a vehicle in a manner that the base pedaling force increases with an increase of pedal travel of the accelerator pedal (2, 21), wherein the pedal travel changes by operation of the accelerator pedal (2, 21) and the pedaling force has a convex-up characteristic wherein the rate of increase of the pedaling force decreases with increase of the pedal travel or convex-down characteristic wherein the rate of increase of the pedaling force increases with increase of the pedal travel; a pedal travel sensing section that senses the pedal travel; and a pedaling force increasing section (7, 7a, 7b, 8, 10) that sets a pedaling force by adding an increment (ΔF0, ΔF1, (ΔP) to the base pedaling force; wherein: the pedaling force increasing section (7, 7a, 7b, 8, 10) changes the increment (ΔF1, ΔP) in accordance with the pedal travel and the convex-up or convex-down characteristic in a manner to make the pedaling force approach a characteristic that the pedaling force increases at a constant rate with respect to increase of the pedal travel. a base pedaling force setting section (2,31,33,34) that sets a base pedaling force of an accelerator pedal (2, 21, 31) of a vehicle in a manner that the base pedaling force increases with an increase of pedal travel of the accelerator pedal (2, 21), wherein the pedal travel changes by operation of the accelerator pedal (2, 21) and the pedaling force has a convex-up characteristic wherein the rate of increase of the pedaling force decreases with increase of the pedal travel or convex-down characteristic wherein the rate of increase of the pedaling force increases with increase of the pedal travel; a pedal travel sensing section that senses the pedal travel; and a pedaling force increasing section (7, 7a, 7b, 8, 10) that sets a pedaling force by adding an increment (ΔF0, ΔF1, (ΔP) to the base pedaling force; the pedaling force increasing section (7, 7a, 7b, 8, 10) changes the increment (ΔF1, ΔP) in accordance with the pedal travel and the convex-up or convex-down characteristic in a manner to make the pedaling force approach a characteristic that the pedaling force increases at a constant rate with respect to increase of the pedal travel.
A lock cylinder comprising a cylinder housing; a cylinder core rotatably supported about a cylinder axis in the cylinder housing; at least one locking pin which is provided at the outer periphery of the cylinder core, which is aligned parallel to the cylinder axis, which can be displaced radially to the cylinder axis, which blocks the cylinder core against a rotational movement in a radially outer blocking position and which releases the cylinder core for a rotational movement in a radially inner release position; a plurality of tumbler disks arranged along the cylinder axis in the cylinder core and rotatably supported between a latch position and an unlatch position, wherein each tumbler disk has a central reception opening for receiving a key and at least one peripheral cut-out for receiving the locking pin in the release position, wherein the locking pin can only be displaced into the release position when all the tumbler disks are in their unlatch position in which the peripheral cut-out of the respective tumbler disk is aligned radially to the locking pin; and a plurality of intermediate disks arranged along the cylinder axis in the cylinder core, wherein a respective intermediate disk is arranged between two mutually adjacent tumbler disks, and wherein the intermediate disks have a predefined rotational clearance relative to the cylinder core, characterized in that a predefined number of possible different codings is provided for the tumbler disks, with each of the codings being defined by a specific angular position of the peripheral cut-out of the tumbler disk with respect to the central reception opening, with the rotational clearance of the intermediate disks corresponding to the smallest angular spacing between the latch position and the unlatch position of the tumbler disks with respect to the different possible codings.
A compound according to Formula (i), (ii), (iii), (iv) or (v): wherein L is NR', O, CR'R', S, or is absent; R is halo; CN; NO 2; C 1 -C 6 alkyl; CF 3; aryl, heteroaryl, aralkyl, alkaryl, heteroalkyl, or carbocycle; C(=O)OR'; alkyl-C(=O)-; -C(=O)aryl; aryl-NH-C(=O)-aryl-; aryl-C(=O)-NH-aryl-; aryl-NH-C(=O)-heteroaryl; heteroaryl-NH-C(=O)-heteroaryl; heteroaryl-NH-C(=O)-aryl; -C(=O)NH-aryl; aryl-C(=O)-; OR'; R'-SO 2 -; SO 2 -R'; SR'; R'-NH-C(=O)-; alkyl-O-C(=O)-; R'-alkyl-; R'-C(=O); NR'R'; any of which optionally may be substituted; or is absent; R' is H; alkyl; haloalkyl; alkylhalo; carbocycle; aryl; heteroaryl, trityl, heteroalkyl, or carboxylic acid ester, any of which may be substituted further; R 1 -R 4 is H, halo, C-R', NR'R', or OR'; -------- denotes the presence or absence of a double bond; aryl, heteroaryl or carbocycle optionally may be substituted or unsubstituted, and may be a mono-, bi- or tricyclic ring structure in any combination of aryl, heteroaryl, and/or carbocyclic rings; and a pharmaceutically acceptable solvate, salt, tautomer and stereoisomer thereof, including mixtures thereof in all ratios. L is NR', O, CR'R', S, or is absent; R is halo; CN; NO 2; C 1 -C 6 alkyl; CF 3; aryl, heteroaryl, aralkyl, alkaryl, heteroalkyl, or carbocycle; C(=O)OR'; alkyl-C(=O)-; -C(=O)aryl; aryl-NH-C(=O)-aryl-; aryl-C(=O)-NH-aryl-; aryl-NH-C(=O)-heteroaryl; heteroaryl-NH-C(=O)-heteroaryl; heteroaryl-NH-C(=O)-aryl; -C(=O)NH-aryl; aryl-C(=O)-; OR'; R'-SO 2 -; SO 2 -R'; SR'; R'-NH-C(=O)-; alkyl-O-C(=O)-; R'-alkyl-; R'-C(=O); NR'R'; any of which optionally may be substituted; or is absent; R' is H; alkyl; haloalkyl; alkylhalo; carbocycle; aryl; heteroaryl, trityl, heteroalkyl, or carboxylic acid ester, any of which may be substituted further; R 1 -R 4 is H, halo, C-R', NR'R', or OR'; -------- denotes the presence or absence of a double bond; aryl, heteroaryl or carbocycle optionally may be substituted or unsubstituted, and may be a mono-, bi- or tricyclic ring structure in any combination of aryl, heteroaryl, and/or carbocyclic rings; and a pharmaceutically acceptable solvate, salt, tautomer and stereoisomer thereof, including mixtures thereof in all ratios.
A method for composing a message at a higher layer of a communications protocol stack, the communications protocol stack comprising the higher layer and one or more lower layers being below the higher layer in the protocol stack, the method comprising receiving information related to a dropped previous message from a lower layer; evaluating a relevancy of a content of the dropped previous message to obtain relevant content, wherein the evaluating comprises determining outdated content and still valid content of the dropped previous message to obtain the relevant content; and composing the message based on the relevant content of the dropped previous message by including the still valid content into the message, wherein the composing comprises including other content into the message, wherein the other content is not part of the dropped previous message.
Process of treating food products, in particular meat, prepared by mixing under vacuum using a treatment device in the form of a mixer or agitator and comprising a vessel with a double enclosure, wherein after a phase of preparation by mixing under vacuum and a phase of heating by increasing temperature, the product is subjected to a step of cooling by a high vacuum, characterized in that it comprises a step of mixing and cooling by double enclosure and by high vacuum.
An apparatus of a MulteFire, MF user equipment, MF UE, the apparatus comprising: processing circuitry, the processing circuitry to configure the MF UE to implement a Reliable Data Service, RDS protocol, wherein to implement the RDS protocol, the processing circuitry is configured to: encode an Attach Request message for transmission in an unlicensed band to a Neutral Host Mobility Management Entity, NH MME MME in a Neutral Host Network, NHN, the Attach Request message including a Packet Data Network, PDN Connectivity Request message for establishing a PDN connection with a Service Capability Exposure Function, SCEF via a Interworking-SCEF, IWK-SCEF, wherein the MF UE connects to multiple SCEFs via the IWK-SCEF, wherein the MF UE connects to multiple service capability server/application server, SCS/ASs via the multiple SCEFs, and wherein the IWK-SCEF is within the NHN and the SCEF is within a Participating Service Provider, PSP network outside of the NHN; decode a configuration message from the SCEF, the configuration message indicating acceptance of non-Internet Protocol, IP data communication via the PDN connection, using the RDS protocol; and in response to the configuration message, encode an RDS frame for transmission to the SCEF via the IWK-SCEF using the PDN connection in the unlicensed band; and memory coupled to the processing circuitry, the memory configured to store the PDN Connectivity Request message. encode an Attach Request message for transmission in an unlicensed band to a Neutral Host Mobility Management Entity, NH MME MME in a Neutral Host Network, NHN, the Attach Request message including a Packet Data Network, PDN Connectivity Request message for establishing a PDN connection with a Service Capability Exposure Function, SCEF via a Interworking-SCEF, IWK-SCEF, wherein the MF UE connects to multiple SCEFs via the IWK-SCEF, wherein the MF UE connects to multiple service capability server/application server, SCS/ASs via the multiple SCEFs, and wherein the IWK-SCEF is within the NHN and the SCEF is within a Participating Service Provider, PSP network outside of the NHN; decode a configuration message from the SCEF, the configuration message indicating acceptance of non-Internet Protocol, IP data communication via the PDN connection, using the RDS protocol; and in response to the configuration message, encode an RDS frame for transmission to the SCEF via the IWK-SCEF using the PDN connection in the unlicensed band; and memory coupled to the processing circuitry, the memory configured to store the PDN Connectivity Request message.